mhurhangee/ep-ind-claims huggingface dataset:
Ultrasound sensor system, comprising at least one sensor (5, 6, 7, 10), which during the detection process introduces ultrasonic waves of a desired mode of oscillation into regions to be detected and/or detects the ultrasonic waves, wherein at least one material recess (2; 21) in which at least one sensor (5, 6, 7, 10; 22) is accommodated is provided on a sensor carrier (1; 44), characterized in that the sensor carrier (1; 44) is an electrode shaft (1; 44) of a welding electrode consisting of an electrode shaft (1; 44) and an electrode cap (1; 54), wherein the material recess (2; 21) is worked into the lateral surface of the electrode shaft (1; 44) as a groove-shaped recess (2; 21) and the side of the groove-shaped recess (2; 21) that is facing the electrode tip forms an area that is aligned perpendicularly to the longitudinal axis of the electrode shaft (1; 44) and on which there is a layer of piezoelectric material.
Jelly confectionary comprising: (a) a sugar selected from isomaltulose, trehalose and combinations thereof, (b) at least one gelling agent and (c) water, wherein the content of component (a) in the jelly confectionary is within the range of 30 to 50 wt.-% based on the total weight of the jelly confectionary and wherein the jelly confectionary contains no sugar alcohols or polyols. (a) a sugar selected from isomaltulose, trehalose and combinations thereof, (b) at least one gelling agent and (c) water,
A medical tube passage system with stylet, the system comprising: a medical tube device including at least one longitudinal passage extending through a length thereof; and an elongate single-wire stylet body with a complete length that includes a proximal stylet length, an intermediate self-coiling shape-memory material stylet length, and a distal stylet length; characterised in that the intermediate self-coiling stylet length forms one or more coils having an outer diameter to effectively limit a default droop length of the stylet body, said outer diameter is a heat set diameter of the elongate single-wire stylet body in the range of 50 mm to 250 mm with a droop length corresponding to gauge of the stylet body in accordance with the below tables: Table 1-19ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 6 100 22 150 39 200 64.2 250 78.7 Table 2- 20ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 10 100 28.5 150 48.3 200 79 250 98 Table 3- 22ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (mm) 50 16.6 100 49.5 150 84.8 200 110.3 Table 4- 25ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 29 100 77 150 119.2 200 137.8 Table 5- 25ga Stylet Cold Set diameter of Stylet Wire (mm) Droop Length (cm) 50 22 100 63 a medical tube device including at least one longitudinal passage extending through a length thereof; and an elongate single-wire stylet body with a complete length that includes a proximal stylet length, an intermediate self-coiling shape-memory material stylet length, and a distal stylet length; a proximal stylet length, an intermediate self-coiling shape-memory material stylet length, and a distal stylet length; characterised in that the intermediate self-coiling stylet length forms one or more coils having an outer diameter to effectively limit a default droop length of the stylet body, said outer diameter is a heat set diameter of the elongate single-wire stylet body in the range of 50 mm to 250 mm with a droop length corresponding to gauge of the stylet body in accordance with the below tables: Table 1-19ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 6 100 22 150 39 200 64.2 250 78.7 Table 2- 20ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 10 100 28.5 150 48.3 200 79 250 98 Table 3- 22ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (mm) 50 16.6 100 49.5 150 84.8 200 110.3 Table 4- 25ga Stylet Heat Set diameter of Stylet Wire (mm) Droop Length (cm) 50 29 100 77 150 119.2 200 137.8 Table 5- 25ga Stylet Cold Set diameter of Stylet Wire (mm) Droop Length (cm) 50 22 100 63
A method of using a user terminal (104, 106), the method comprising: detecting a preference of the user terminal (104, 106) for a predetermined service, wherein the user terminal (104, 106) is currently connected to a first public land mobile network, PLMN, at a current location of the user terminal (104,106) via a first radio access technology, RAT; detecting that the first RAT does not provide the predetermined service; monitoring whether or not another PLMN or another RAT of the first PLMN is available; if, based on the monitoring, it is detected that another PLMN or another RAT of the first PLMN is available, considering the first RAT of the first PLMN as disabled due to lack of the predetermined service from the first RAT, and characterised by generating an information element to a memory, the information element (400, 600) identifying the first PLMN and indicating that the first RAT of the first PLMN has been marked as disabled, wherein the information element (400, 600) is valid until a predetermined criterion is met and at least beyond a point of time when the user terminal (104, 106) switches to another PLMN and/or to another RAT, and wherein the information element (400, 600) while valid is usable by the user terminal (104, 106) to avoid the user terminal (104, 106) selecting to connect back to the first PLMN via the first RAT. detecting a preference of the user terminal (104, 106) for a predetermined service, wherein the user terminal (104, 106) is currently connected to a first public land mobile network, PLMN, at a current location of the user terminal (104,106) via a first radio access technology, RAT; detecting that the first RAT does not provide the predetermined service; monitoring whether or not another PLMN or another RAT of the first PLMN is available; if, based on the monitoring, it is detected that another PLMN or another RAT of the first PLMN is available, considering the first RAT of the first PLMN as disabled due to lack of the predetermined service from the first RAT, and characterised by generating an information element to a memory, the information element (400, 600) identifying the first PLMN and indicating that the first RAT of the first PLMN has been marked as disabled, wherein the information element (400, 600) is valid until a predetermined criterion is met and at least beyond a point of time when the user terminal (104, 106) switches to another PLMN and/or to another RAT, and wherein the information element (400, 600) while valid is usable by the user terminal (104, 106) to avoid the user terminal (104, 106) selecting to connect back to the first PLMN via the first RAT.
A belt reel for a vehicle safety restraint arrangement, said belt reel comprising a retractable and extractable belt, said belt reel comprising a retraction mechanism adapted to retract said belt from an extracted position, said belt reel further comprising a belt retraction brake adapted to limit the retraction speed of said belt by imparting a braking force to said belt reel during retraction of said belt, characterized in that said braking force of said belt retraction brake being imparted to said belt reel via inductance.
Method for operating a home automation system having a central control device and peripheral devices, wherein the peripheral devices comprise a roller blind motor, wherein the peripheral devices can be connected by telecommunication technology to the central control device and can be actuated by the central control device, wherein in a switched-on operating state the central control device is configured to actuate the peripheral devices according to an actuation sequence which can be executed and, if appropriate, according to direct operator control inputs, and wherein the central control device receives passenger location data and determines execution of the actuation sequence on the basis thereof, wherein the central control device adapts, while retaining the switched-on operating state, the execution of the actuation sequence on the basis of a received external signal which is, if appropriate, different from the direct operator control inputs, wherein the external signal comprises close-range data which are generated by a close-range sensor (19a, b), wherein the close-range sensor (19a, b) is a person sensor, and wherein the external signal comprises environmental data generated by an environment sensor which is configured as a weather sensor.
A shock-absorbed stop device for rolling shutters or sectional doors, comprising a bearing case wherein a clawed wheel is housed and rotates with respect to a horizontal axis, adapted to be joined to the rolling shaft of the shutter and cooperating with means driven into rotation by said wheel only when its rotational speed exceeds a predefined safety value, wherein said means are supported by a cursor that rotates with respect to the axis of rotation of the wheel and is housed inside the case and is subject to the braking action of an opposite pair of jaws, that tighten the cursor, device characterized in that said jaws are associated with a fixing screw contained inside the case, the head of which can be anyhow accessed from outside the case by means of a hole (1 c) obtained on one (1b") of the two lateral walls (1b' and 1b") of the case, which is also provided with a window through which access is provided to a parallel pair of pinions keyed in a pin fixed inside the case and engaging with a toothed section, provided along the border of said cursor and coinciding with arc of circumference having the center on the axis of rotation of the clawed wheel.
Actuating apparatus for a vacuum interrupter comprising - a connecting element, which is connectable to an electrical contact of the vacuum interrupter, and - an electromagnetic actuating device for moving the connecting element between a first position and a second position, - a retaining yoke, relative to which the connecting element is moveable, and which comprises a first magnet element, wherein - the first magnet element brings about a first magnetic circuit and a second magnetic circuit in the retaining yoke, and - a ferromagnetic retaining armature, which is arranged on the connecting element, wherein - the retaining armature is located in the first magnetic circuit in the first position of the connecting element and in the second magnetic circuit in the second position of the connecting element, and wherein - the connecting element is held stably in the first position and in the second position by a respective magnetic force between the retaining yoke and the retaining armature, characterized in that - the electromagnetic actuating device has a second magnet element and a coil element which is moveable relative to the second magnet element and which is connected to the connecting element. - a connecting element, which is connectable to an electrical contact of the vacuum interrupter, and - an electromagnetic actuating device for moving the connecting element between a first position and a second position, - a retaining yoke, relative to which the connecting element is moveable, and which comprises a first magnet element, wherein - the first magnet element brings about a first magnetic circuit and a second magnetic circuit in the retaining yoke, and - a ferromagnetic retaining armature, which is arranged on the connecting element, wherein - the retaining armature is located in the first magnetic circuit in the first position of the connecting element and in the second magnetic circuit in the second position of the connecting element, and wherein - the connecting element is held stably in the first position and in the second position by a respective magnetic force between the retaining yoke and the retaining armature, - the electromagnetic actuating device has a second magnet element and a coil element which is moveable relative to the second magnet element and which is connected to the connecting element.
A resource allocation method, comprising: receiving, by user equipment, a response message sent by a base station, wherein the response message is used to provide a D2D communication resource of a first cell to the user equipment, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing, by the user equipment, D2D communication in the first cell; wherein, before the receiving, by user equipment, a response message sent by a base station, the method further comprises: transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell. receiving, by user equipment, a response message sent by a base station, wherein the response message is used to provide a D2D communication resource of a first cell to the user equipment, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing, by the user equipment, D2D communication in the first cell; wherein, before the receiving, by user equipment, a response message sent by a base station, the method further comprises: transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell. transmitting, by the user equipment, a request message to the base station, wherein the request message is used to request a resource used by the user equipment to perform D2D communication; wherein the method further comprises: reporting, by the user equipment, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform D2D communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality that is measured by the user equipment and that is in the first cell.
A method of printing a three-dimensional object using a printing device, the method comprising: determining a color for a region (260, 262, 264, 266, 268) of the three-dimensional object, the color being assigned a color density; determining a color thickness (270, 272, 274, 276, 278) for the color based on the color density; printing a color layer (250, 252, 254, 256, 258) having the color thickness in the region; characterized by determining a target thickness for the region (260, 262, 264, 266, 268) of the three-dimensional object, the target thickness being independent from the color thickness (270, 272, 274, 276, 278); determining a structural thickness (280, 282, 284, 286, 288) for a structural layer of the region based on the color thickness (270, 272, 274, 276, 278) and the target thickness; printing the structural layer having the structural thickness (280, 282, 284, 286, 288) directly onto the color layer (250, 252, 254, 256, 258); and wherein a combination of the color layer (250, 252, 254, 256, 258) and the structural layer has the target thickness. determining a color for a region (260, 262, 264, 266, 268) of the three-dimensional object, the color being assigned a color density; determining a color thickness (270, 272, 274, 276, 278) for the color based on the color density; printing a color layer (250, 252, 254, 256, 258) having the color thickness in the region; characterized by determining a target thickness for the region (260, 262, 264, 266, 268) of the three-dimensional object, the target thickness being independent from the color thickness (270, 272, 274, 276, 278); determining a structural thickness (280, 282, 284, 286, 288) for a structural layer of the region based on the color thickness (270, 272, 274, 276, 278) and the target thickness; printing the structural layer having the structural thickness (280, 282, 284, 286, 288) directly onto the color layer (250, 252, 254, 256, 258); and wherein a combination of the color layer (250, 252, 254, 256, 258) and the structural layer has the target thickness.
Turbine for a turbine engine extending along an axis, including an annular casing and at least one turbine stage comprising a nozzle and a rotor impeller wheel surrounded by a sealing ring including an abradable element, the impeller wheel and the sealing ring being located downstream from the nozzle, the sealing ring including an upstream end held on the casing by locking means, characterized in that it includes a first elastic seal in contact with the locking means as well as with the nozzle or the casing so as to press the locking means against the sealing ring, and in that the locking means include a radially outer portion with a generally C-shaped cross-section and a radial portion extending radially inward from the outer portion, the turbine including a second elastic seal in contact with the locking means and with a radial face of the sealing ring, the two seals (48, 49) bearing on said radial portion, respectively on either side of the radial portion.
A coating comprising a first surface and a second surface, comprising: a plurality of growth domains, wherein an orientation of at least one growth domain of the plurality of growth domains is non-vertical with respect to the first surface of the coating, and wherein one or more growth domains of the plurality of growth domains comprise a plurality of at least partially melted and solidified particles characterized in that the plurality of growth domains comprise an intra-domain density of at least 75%, wherein the intra-domain density is the density of material forming the coating contained within the growth domain.
A method for assessing for presence of heart failure in a human subject with a non-acute heart condition, the method comprising: determining a BIN1 protein level in a bodily fluid sample obtained from the subject; and using the BIN1 protein level to assess the presence of heart failure in the subject, wherein a decreased BIN1 protein level in the bodily fluid sample compared to a normal BIN1 protein level is positively correlated to the presence of heart failure, wherein the body fluid sample comprises a blood sample, a serum sample or a plasma sample. determining a BIN1 protein level in a bodily fluid sample obtained from the subject; and using the BIN1 protein level to assess the presence of heart failure in the subject, wherein a decreased BIN1 protein level in the bodily fluid sample compared to a normal BIN1 protein level is positively correlated to the presence of heart failure, wherein the body fluid sample comprises a blood sample, a serum sample or a plasma sample.
A method of indicating drag and drop targets for a dragged first object among a plurality of second objects in a graphical user interface, the method comprising: - rendering with a first rendering mode a first group of the second objects within the GUI onto which the dragged first object is likely to be dropped, based on a projection of its future displacement, - rendering with a second rendering mode distinct from the first rendering mode a second group of the second objects, the second group consisting of the remaining second objects, - receiving a further drag input on the first object, - updating the groups based at least upon the updated position of the first object derived from the received further drag input, the method being characterized in that the updating further comprises: - disabling the drop capabilities of the second objects in the second group. - rendering with a first rendering mode a first group of the second objects within the GUI onto which the dragged first object is likely to be dropped, based on a projection of its future displacement, - rendering with a second rendering mode distinct from the first rendering mode a second group of the second objects, the second group consisting of the remaining second objects, - receiving a further drag input on the first object, - updating the groups based at least upon the updated position of the first object derived from the received further drag input, the method being characterized in that the updating further comprises: - disabling the drop capabilities of the second objects in the second group.
A variable transmission device comprising: radially inner (70, 80) and outer (100, 110) races, each comprising two parts spaced along an axis; planetary members arranged in rolling contact with said inner and outer races; a transmission ratio controller operable to vary a separation along said axis of said two parts of one of said inner and outer races resulting in a radial displacement of said planetary members to vary a transmission ratio; and a clamping force controller coupled to at least one of said two parts of another of said inner and outer races and to an input shaft, said clamping force controller comprising opposing surfaces operable rotate relative to each other in response to a torque applied to said input shaft, at least one of said opposing surfaces being defined by a ramp having a non-linear lead profile, said relative rotation of said opposing surfaces causing a non-linear change in separation along said axis of said two parts of said another of said inner and outer races to accommodate said radial displacement of said planetary members and to control clamping forces applied between said planetary members and said inner (70, 80) and outer (100, 110) races proportionately to said torque applied to said input shaft and said different transmission ratios, characterised in that said non-linear lead profile is defined in accordance with the following algorithm: Lead = μ * R contact * π Sin θ where μ is the coefficient of friction between the races and planets, R is the contact radius and θ is the contact angle. radially inner (70, 80) and outer (100, 110) races, each comprising two parts spaced along an axis; planetary members arranged in rolling contact with said inner and outer races; a transmission ratio controller operable to vary a separation along said axis of said two parts of one of said inner and outer races resulting in a radial displacement of said planetary members to vary a transmission ratio; and a clamping force controller coupled to at least one of said two parts of another of said inner and outer races and to an input shaft, said clamping force controller comprising opposing surfaces operable rotate relative to each other in response to a torque applied to said input shaft, at least one of said opposing surfaces being defined by a ramp having a non-linear lead profile, said relative rotation of said opposing surfaces causing a non-linear change in separation along said axis of said two parts of said another of said inner and outer races to accommodate said radial displacement of said planetary members and to control clamping forces applied between said planetary members and said inner (70, 80) and outer (100, 110) races proportionately to said torque applied to said input shaft and said different transmission ratios, characterised in that said non-linear lead profile is defined in accordance with the following algorithm: Lead = μ * R contact * π Sin θ where μ is the coefficient of friction between the races and planets, R is the contact radius and θ is the contact angle.