mhurhangee/ep-ind-claims huggingface dataset:
A cutting insert (10, 20, 30, 110) comprising: an upper face (11, 21, 31) and a face, a front side face portion (13, 23, 33) and a back side face portion (14, 24), the front (13, 23, 33) and back side face portions (14, 24) connecting the upper face (11, 21, 31) and the lower face, and a through-hole (17, 27, 37) passing through the upper face (11, 21, 31) and the lower face, wherein a cutting edge (13-1, 13-2, 23-1, 23-2, 33-1) is formed in the front side face portion (13, 23, 33), and the back side face portion (14, 24) is provided with a first inclined face (14-1, 24-1, 34-1) and a second inclined face (14-2, 24-2, 34-2) which are inclined forwardly at different angles (α, β), respectively with respect to a plane normal to a rotational axis, and the first inclined face (14-2, 24-2, 34-2) is longer than the second inclined face (14-2, 24-1, 34-1) so that the back side face portion (14, 24) has a non-symmetrical convex "V" shape, characterized in that a portion of an inner circumferential surface of the through-hole (17, 27, 37) is a flat plane (18, 28) which is inclined in an opposite direction to the first inclined face (14-1, 24-1, 34-1). an upper face (11, 21, 31) and a face, a front side face portion (13, 23, 33) and a back side face portion (14, 24), the front (13, 23, 33) and back side face portions (14, 24) connecting the upper face (11, 21, 31) and the lower face, and a through-hole (17, 27, 37) passing through the upper face (11, 21, 31) and the lower face, wherein a cutting edge (13-1, 13-2, 23-1, 23-2, 33-1) is formed in the front side face portion (13, 23, 33), and the back side face portion (14, 24) is provided with a first inclined face (14-1, 24-1, 34-1) and a second inclined face (14-2, 24-2, 34-2) which are inclined forwardly at different angles (α, β), respectively with respect to a plane normal to a rotational axis, and the first inclined face (14-2, 24-2, 34-2) is longer than the second inclined face (14-2, 24-1, 34-1) so that the back side face portion (14, 24) has a non-symmetrical convex "V" shape, characterized in that a portion of an inner circumferential surface of the through-hole (17, 27, 37) is a flat plane (18, 28) which is inclined in an opposite direction to the first inclined face (14-1, 24-1, 34-1).
Switch for switching a screwing direction of a pneumatic screwer, comprising seat means (22, 23, 24; 122, 123, 124) arranged for engaging with locking means (27, 28) slidably associated with said screwer for maintaining said switch (20; 120) in an operating position corresponding to a desired screwing direction of said screwer, wherein said seat means comprises three seats (22, 23, 24; 122, 123, 124) that are arranged in sequence, characterized in that locking means (27, 28) are engaging, in said operating position, with two (22, 23; 23, 24; 122, 123; 123, 124) of said three seats (22, 23, 24; 122, 123, 124).
Device for assembling a casing ring in a watch case middle including, on the inner wall thereof, at least one bearing surface, said casing ring including at least one housing opening, on the one hand, in the lateral face of said casing ring through a lateral opening, and on the other hand, in the upper or lower face of the casing ring through an upper or lower opening, said device including at least one locking part, of complementary shape to said housing, capable of pivoting about a vertical axis of rotation passing through said upper or lower opening from a first position, called the retracted position, in which said locking part is at least partially housed in said housing, to a second position, called the locking position, in which said locking part protrudes and abuts against one of the bearing surfaces of the inner wall of said case middle so as to hold said casing ring in said case middle, characterized in that said at least one locking part includes a pin integral with the locking part and thanks to which said locking part is snap-fitted in said at least one housing and pivots about said vertical axis of rotation.
A shovel comprising: a traveling body; a turning body turnably mounted on the traveling body; an attachment (4, 5, 6) attached to the turning body; a hydraulic actuator configured to drive the attachment; and a controller; characterised in that the controller is configured to control the hydraulic actuator to minimize unintended movement of the shovel, the unintended movement including vibration or a change in orientation of the traveling body or of the turning body, in response to a change in moment caused by an in-air movement of the attachment. a traveling body; a turning body turnably mounted on the traveling body; an attachment (4, 5, 6) attached to the turning body; a hydraulic actuator configured to drive the attachment; and a controller; characterised in that the controller is configured to control the hydraulic actuator to minimize unintended movement of the shovel, the unintended movement including vibration or a change in orientation of the traveling body or of the turning body, in response to a change in moment caused by an in-air movement of the attachment.
Table for a chopper folding device, of the type comprising a base plate provided with - a surface for application of products to be folded, the application surface extending along an application plane, - a folding opening suitable for the passage of the products to be folded, - at least one first guide portion being part of the base plate and being disposed adjacent to the folding opening and comprising a first guide surface inclined with respect to the application plane, characterized in that the table comprises guiding means which are suitable for urging the product to be folded towards the first guide surface and which are provided with a first main suction hole which opens on the first guide surface, the said opening being arranged exclusively in a forward half of the guide portion. - a surface for application of products to be folded, the application surface extending along an application plane, - a folding opening suitable for the passage of the products to be folded, - at least one first guide portion being part of the base plate and being disposed adjacent to the folding opening and comprising a first guide surface inclined with respect to the application plane, characterized in that the table comprises guiding means which are suitable for urging the product to be folded towards the first guide surface and which are provided with a first main suction hole which opens on the first guide surface, the said opening being arranged exclusively in a forward half of the guide portion.
A discharge lamp (100, 300, 400, 500, 600, 700), comprising: a ceramic discharge vessel (102, 402, 502, 630) defining at least part of a cavity (108, 308, 508) containing a metal halide filling; and two feedthroughs (106, 306, 406, 506, 610/612) having first and second ends (110, 112), the first end located in the cavity; wherein the discharge lamp is configured to start and operate with a probe start ballast not having high-voltage igniters or high-voltage ignition circuits, wherein the lamp operates without an internal probe starting electrode and bi-metal switch, characterized in that said filling comprises a mixture selected from one of an Na-Tl-Ca-Ce-In iodide, Na-Tl-Ca-Ce-Mn iodide, Na-Tl-Ca-Ce-Mg iodide, Na-Tl-Ca-Ce iodide, Na-Tl-Ca-Ce-Cs iodide, Na-Tl-Ca-Ce-In-Cs iodide, and Na-Tl-Ca-Ce-Mn-Cs iodide fillings, yielding a power factor of between 0.75 and 0.85. a ceramic discharge vessel (102, 402, 502, 630) defining at least part of a cavity (108, 308, 508) containing a metal halide filling; and two feedthroughs (106, 306, 406, 506, 610/612) having first and second ends (110, 112), the first end located in the cavity; wherein the discharge lamp is configured to start and operate with a probe start ballast not having high-voltage igniters or high-voltage ignition circuits, wherein the lamp operates without an internal probe starting electrode and bi-metal switch
A spacer (100, 101, 300, 500) configured for use in a battery pack (200, 600) having a plurality of cylindrical battery cells (220, 420, 620) mounted in a pack case (260, 670), wherein the spacer is configured to have a top shape corresponding to the inner shape of the pack case in vertical section and a bottom shape corresponding to the outer circumferential shape of the cylindrical battery cells in vertical section so that the spacer can be mounted in a space defined between the cylindrical battery cells and the pack case, and the spacer comprises at least one temperature detection member mounting part comprising a horizontal opening open in one direction or in opposite directions and a vertical opening communicating with the horizontal opening so that a temperature detection member is inserted from one side of the spacer and mounted in a space defined between the cylindrical battery cells from one side of the spacer, wherein grooves (112, 114), in which electrical connection members are mounted, are formed at the top of the spacer, and characterized in that the spacer is provided at the top thereof with a groove corresponding to the width of each of the electrical connection members, the groove being formed in the longitudinal direction of the cylindrical battery cells, and wherein at least one branch groove diverges from the groove in the lateral direction of the cylindrical battery cells.
An apparatus for storing screws and guiding the screws during insertion into a surface, the apparatus comprising: (a) a plurality of screws each having a threaded shaft extending along a central axis from a head to a tip; (b) a screw support configured to support said plurality of screws with said central axes parallel to each other, said screw support being further configured to render said screw heads accessible with a driver and, when said screw support is placed in proximity to the surface, to allow each of said screws to advance through said screw support to penetrate into the surface, wherein said screw support is configured to support said plurality of screws in a plurality of side-by-side rows; characterised in that the apparatus further comprises (c) a magnet configuration comprising a magnet, said magnet configuration disposed adjacent to said tips of said screws so as to provide tactile feedback when the screw support is in alignment with a soft magnetic material. (a) a plurality of screws each having a threaded shaft extending along a central axis from a head to a tip; (b) a screw support configured to support said plurality of screws with said central axes parallel to each other, said screw support being further configured to render said screw heads accessible with a driver and, when said screw support is placed in proximity to the surface, to allow each of said screws to advance through said screw support to penetrate into the surface, wherein said screw support is configured to support said plurality of screws in a plurality of side-by-side rows; characterised in that the apparatus further comprises (c) a magnet configuration comprising a magnet, said magnet configuration disposed adjacent to said tips of said screws so as to provide tactile feedback when the screw support is in alignment with a soft magnetic material.
A method performed by a service layer node of a communications network, the method comprising: receiving, from a device via the communications network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability (2004, 2006, 2008) capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service layer node of the communications network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the other service layer node, a result of the requested data analytics operation on the data; and sending the result to the device. receiving, from a device via the communications network, a request to perform a data analytics operation on data, the request identifying a type of data analytics capability (2004, 2006, 2008) capable of performing the requested data analytics operation, the request further comprising one or more parameters required by the identified type of data analytics capability, the required parameters being specified in a profile defined for the identified type of data analytics capability; forwarding the received request to another service layer node of the communications network having a closer proximity to the data on which the requested data analytics operation is to be performed; receiving, from the other service layer node, a result of the requested data analytics operation on the data; and sending the result to the device.
A process for forming a sheet of thermoplastic material into a three-dimensional shape, the process comprising the steps of: (i) forming the sheet at a temperature below its glass transition temperature to produce a first formed shape in the sheet, followed by (ii) raising the temperature of the first formed shape to above its glass transition temperature whilst a male former, having at least a portion of its profile being substantially the same as that of the first formed shape, is positioned to substantially align at least a portion of its profile with that of the first formed shape, thereby restricting the first formed shape from shrinking back towards its original sheet form, characterised in that this step is followed by (iii) further forming the first formed shape at a temperature below that of the glass transition temperature, to form a second formed shape, followed by (iv) raising the temperature of the second formed shape to above its glass transition temperature whilst a male former, at least a portion of its profile being substantially the same as that of the second formed shape, is positioned to substantially align at least a portion of its profile with that of the second formed shape, thereby restricting the second formed shape from shrinking back towards its original sheet form. (i) forming the sheet at a temperature below its glass transition temperature to produce a first formed shape in the sheet, followed by (ii) raising the temperature of the first formed shape to above its glass transition temperature whilst a male former, having at least a portion of its profile being substantially the same as that of the first formed shape, is positioned to substantially align at least a portion of its profile with that of the first formed shape, thereby restricting the first formed shape from shrinking back towards its original sheet form, characterised in that this step is followed by (iii) further forming the first formed shape at a temperature below that of the glass transition temperature, to form a second formed shape, followed by (iv) raising the temperature of the second formed shape to above its glass transition temperature whilst a male former, at least a portion of its profile being substantially the same as that of the second formed shape, is positioned to substantially align at least a portion of its profile with that of the second formed shape, thereby restricting the second formed shape from shrinking back towards its original sheet form.
Insulating glazing unit, extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z; having a width, W, measured along the longitudinal axis, X, and a length, L, measured along the vertical axis, Z, comprising - a first glass pane, facing outside having two majors surfaces extending along a plane, P, an outer surface and an inner surface, - a second glass pane facing inside having two majors surfaces extending along a plane, P, an outer surface and an inner surface facing to the inner surface of the first glass pane, - a spacer, maintaining a distance, D, between the first glass pane and the second glass pane; - an antenna unit comprising an antenna wherein the antenna unit is fixed between the first glass pane and the second glass pane and the antenna unit comprises an antenna and a fixing portion for fixing the antenna to one of the glass panes (1, 2) and for maintaining the antenna at a distance Da1 from the inner surface of the first glass pane to create a space S1 through which gas can circulate and characterized in that the antenna unit is maintained at a distance Da2 from the inner surface of the second glass pane to create a space S2 through which gas can circulate. - a first glass pane, facing outside having two majors surfaces extending along a plane, P, an outer surface and an inner surface, - a second glass pane facing inside having two majors surfaces extending along a plane, P, an outer surface and an inner surface facing to the inner surface of the first glass pane, - a spacer, maintaining a distance, D, between the first glass pane and the second glass pane; - an antenna unit comprising an antenna wherein the antenna unit is fixed between the first glass pane and the second glass pane and the antenna unit comprises an antenna and a fixing portion for fixing the antenna to one of the glass panes (1, 2) and for maintaining the antenna at a distance Da1 from the inner surface of the first glass pane to create a space S1 through which gas can circulate and characterized in that the antenna unit is maintained at a distance Da2 from the inner surface of the second glass pane to create a space S2 through which gas can circulate.
A monomer for RNA synthesis or a salt thereof, represented by the following formula: wherein B is selected from adenine, guanine, cytosine, uracil, hypoxanthine and xanthine; R 1 is a silyl protective group selected from trimethylsilyl, triethylsilyl, triisopropylsilyl, dimethylisopropylsilyl, diethylisopropylsilyl, dimethylthexylsilyl, t-butyldimethylsilyl, t-butyldiphenylsilyl, tribenzylsilyl, tri-p-xylylsilyl, triphenylsilyl, diphenylmethylsilyl and t-butylmethoxyphenylsilyl; and R 2 is a C 1-4 alkyl group, a C 2-4 alkenyl group or a C 1-4 halogenated alkyl group. B is selected from adenine, guanine, cytosine, uracil, hypoxanthine and xanthine; R 1 is a silyl protective group selected from trimethylsilyl, triethylsilyl, triisopropylsilyl, dimethylisopropylsilyl, diethylisopropylsilyl, dimethylthexylsilyl, t-butyldimethylsilyl, t-butyldiphenylsilyl, tribenzylsilyl, tri-p-xylylsilyl, triphenylsilyl, diphenylmethylsilyl and t-butylmethoxyphenylsilyl; and R 2 is a C 1-4 alkyl group, a C 2-4 alkenyl group or a C 1-4 halogenated alkyl group.
An automated feed manufacturing product, comprising: a flexible substrate having a plurality of card zones with the card zones defining sensing areas with sensor units formed within the sensing areas, the sensor units having a first electrode coupled to first fingers, and a second electrode coupled to second fingers and with the first fingers interleaved with the second fingers and with the first fingers spaced away from the second fingers, the sensor units also comprising biomolecule receptors on the substrate between the first electrode and the second electrode such that a physical property of the first electrode relative to the second electrode is effected upon one or more of the biomolecule receptors binding to a biomolecule, wherein the first fingers and the second fingers are comprised of a first conductive ink having a particle size of less than or equal to 5 microns, and wherein the first electrode and the second electrode are comprised of a second conductive ink having a particle size of greater than 5 microns. a flexible substrate having a plurality of card zones with the card zones defining sensing areas with sensor units formed within the sensing areas, the sensor units having a first electrode coupled to first fingers, and a second electrode coupled to second fingers and with the first fingers interleaved with the second fingers and with the first fingers spaced away from the second fingers, the sensor units also comprising biomolecule receptors on the substrate between the first electrode and the second electrode such that a physical property of the first electrode relative to the second electrode is effected upon one or more of the biomolecule receptors binding to a biomolecule, wherein the first fingers and the second fingers are comprised of a first conductive ink having a particle size of less than or equal to 5 microns, and wherein the first electrode and the second electrode are comprised of a second conductive ink having a particle size of greater than 5 microns.
System for transmitting data via at least one single-wire bus between a central transmission/reception unit and at least one peripheral unit, said data being transmitted in sync with the half-cycles of the phase of the mains power supply of the transmitter and bringing the potential of said single-wire bus either to the potential of the neutral of the mains power supply or to the potential of the phase of the mains power supply, said transmission/reception unit itself comprising a control unit designed to control a controlled switch and said peripheral unit being a peripheral transmission/reception unit comprising a control unit designed to control a controlled switch, characterized in that, for said or each single-wire bus, said controlled switch has a switch terminal that is connected to the phase of the mains power supply while the other switch terminal is connected, via a resistor, to said single-wire bus and in that said controlled switch has a switch terminal that is connected to the neutral of the mains power supply while the other switch terminal is connected, via a resistor, to said single-wire bus, the potential of said single-wire bus being, when the controlled switch is open, that of the neutral of the mains power supply.
A method performed in a server in a telecom operator network for control of power source usage of a multi power source radio device connected to the telecom operator network via a cellular Radio Access Network, RAN, of said telecom operator network, the method comprising: obtaining information about a plurality of power sources (Bai, Ba2, 24) available for the radio device; based on the obtained information, determining criteria for when to use at least one of the plurality of power sources; and sending a power source configuration message towards the radio device, comprising information about the determined criteria, for enabling the radio device to use said at least one of the plurality of power sources in accordance with the determined criteria; wherein the criteria comprises one or more traffic types, e.g. video or data, for which the power source should, or should not, be used. obtaining information about a plurality of power sources (Bai, Ba2, 24) available for the radio device; based on the obtained information, determining criteria for when to use at least one of the plurality of power sources; and sending a power source configuration message towards the radio device, comprising information about the determined criteria, for enabling the radio device to use said at least one of the plurality of power sources in accordance with the determined criteria; wherein the criteria comprises one or more traffic types, e.g. video or data, for which the power source should, or should not, be used.
Apparatus for endovascularly replacing a patient's heart valve, the apparatus comprising: an expandable anchor comprising a lip region and a skirt region; a replacement valve; and a delivery system; characterized in that the delivery system comprises actuators configured to expand the skirt region and actuators configured to expand the lip region, wherein the lip region and skirt region are configured for percutaneous expansion to engage leaflets of the heart valve. an expandable anchor comprising a lip region and a skirt region; a replacement valve; and a delivery system; characterized in that the delivery system comprises actuators configured to expand the skirt region and actuators configured to expand the lip region, wherein the lip region and skirt region are configured for percutaneous expansion to engage leaflets of the heart valve.