mhurhangee/ep-ind-claims huggingface dataset:
A musculoskeletal tissue engineering and compliance monitoring system, comprising: a tissue engineering apparatus comprising an ultrasound transducer configured to supply ultrasound to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the ultrasound over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment, UE, device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device. a tissue engineering apparatus comprising an ultrasound transducer configured to supply ultrasound to musculoskeletal tissue, wherein the tissue engineering apparatus is configured with a regimen defining a periodic application of the ultrasound over a long-term duration, the tissue engineering apparatus further comprising a sensor configured to detect use of the tissue engineering apparatus on the musculoskeletal tissue and a first transceiver configured to transmit data from the sensor; a user equipment, UE, device comprising a second transceiver configured to associate with the tissue engineering apparatus and receive the data from the tissue engineering apparatus, and a UE processor configured to compare the data for compliance with the periodic application specified in the regimen, generate a current status of the periodic application, and modify a reminder based on the current status of the periodic application; and a remote server comprising a third transceiver configured to receive the data including the current status from the UE device, and a server processor configured to compile the data into a compliance report identifying use of the tissue engineering apparatus over the long-term duration, the third transceiver further configured to transmit the compliance report to a subscribing device.
A method of forming a nonwoven material, the method comprising: - receiving fibrous material comprising thermoplastic fibers; - processing the fibrous material to produce short fibers, wherein the processing comprises milling the fibrous material and wherein the short fibers produced by the milling have an average length of less than 6 mm in length; - adding the short fibers to a preformed web; and - heating and compressing the preformed web to form a nonwoven material; wherein the short fibers comprise between 20 wt % and less than 100 wt % by weight of the nonwoven material; and wherein the nonwoven material has a bulk density of between 200 kg/m 3 and 800 kg/m 3 and a selected air flow resistivity between 275,000 Rayls/m and 3,000,000 Rayls/m. - receiving fibrous material comprising thermoplastic fibers; - processing the fibrous material to produce short fibers, wherein the processing comprises milling the fibrous material and wherein the short fibers produced by the milling have an average length of less than 6 mm in length; - adding the short fibers to a preformed web; and - heating and compressing the preformed web to form a nonwoven material;
A method for locking and unlocking a receptacle for a mobile telecommunications terminal, in particular a smartphone, wherein the receptacle is arranged in a holder, wherein a token is associated with the holder, wherein the token, which is secured in an insertion opening of the holder against removal, is released when a telecommunications terminal is locked in the receptacle, wherein the token is inserted into the holder to release the receptacle, wherein an authorisation check is executed, by means of which the association of the token inserted into the holder is checked and wherein, if the token is successfully associated with the holder, the locking device is unlocked, characterized in that, when the telecommunications terminal is locked in the receptacle or when the authorization is checked successfully, a signal is generated, which is transmitted to a locking element blocking the movement of a first actuator, wherein the signal activates the locking element, wherein the activation of the locking element terminates the blockage of the movement of the actuator for holding the token, and wherein the locking element is a spring-loaded plunger, which is moved against the spring load by an electromagnet when it is activated.
Method for fabrication of a timepiece component comprising the following steps: - forming a first part (27, 37, 47) made from metal and a second part made from silicon or ceramic; - mounting a surface (21, 23, 31, 33, 41, 43) of the first part (27, 37, 47) on a surface (18, 20) of the second part; - welding, by laser electromagnetic radiation, the surface (21, 23, 31, 33, 41, 43) of the first part (27, 37, 47) mounted on the surface (18, 20) of the second part, in order to secure the parts to each other and to form said timepiece component. characterized in that the step of forming the first part includes the following phases: - taking a bar; - profile turning the bar to form at least one diameter portion (22, 24, 26, 32, 42) comprising a substantially vertical surface (21, 31, 41) and a substantially horizontal surface (23, 33, 43); - machining said substantially horizontal surface to form a flat surface (35, 45) for receiving said surface of the second part underneath the substantially horizontal surface. - forming a first part (27, 37, 47) made from metal and a second part made from silicon or ceramic; - mounting a surface (21, 23, 31, 33, 41, 43) of the first part (27, 37, 47) on a surface (18, 20) of the second part; - welding, by laser electromagnetic radiation, the surface (21, 23, 31, 33, 41, 43) of the first part (27, 37, 47) mounted on the surface (18, 20) of the second part, in order to secure the parts to each other and to form said timepiece component. - taking a bar; - profile turning the bar to form at least one diameter portion (22, 24, 26, 32, 42) comprising a substantially vertical surface (21, 31, 41) and a substantially horizontal surface (23, 33, 43); - machining said substantially horizontal surface to form a flat surface (35, 45) for receiving said surface of the second part underneath the substantially horizontal surface.
A substrate processing method for forming a space extending along a predetermined line (12, 12a-12e) in a silicon substrate, the method comprising: a first step of converging a laser light which is an elliptically-polarized light having an ellipticity other than 1 at the silicon substrate so as to form a plurality of modified spots within the silicon substrate along the line (12, 12a-12e) and construct a modified region (7, 7a-7e) including the plurality of modified spots; and a second step of anisotropically etching the silicon substrate after the first step so as to advance an etching selectively along the modified region (7, 7a-7e) and form the space in the silicon substrate; wherein the predetermined line includes a first part (12a, 12b) and a second part (12c, 12d, 12e); wherein, the first step includes converging the laser light at the silicon substrate such that a moving direction of the laser light with respect to the silicon substrate and a direction of polarization of the laser light form an angle of less than 45° therebetween, and forming the plurality of modified spots such as to align in a plurality of rows along the first part (12a, 12b) of the line, and wherein, the first step includes converging the laser light at the silicon substrate such that the moving direction of the laser light with respect to the silicon substrate and the direction of polarization of the laser light form an angle of greater than 45° therebetween, and forming the plurality of modified spots such as to align in one row along the second part (12c, 12d, 12e) of the line. a first step of converging a laser light which is an elliptically-polarized light having an ellipticity other than 1 at the silicon substrate so as to form a plurality of modified spots within the silicon substrate along the line (12, 12a-12e) and construct a modified region (7, 7a-7e) including the plurality of modified spots; and a second step of anisotropically etching the silicon substrate after the first step so as to advance an etching selectively along the modified region (7, 7a-7e) and form the space in the silicon substrate; wherein the predetermined line includes a first part (12a, 12b) and a second part (12c, 12d, 12e); wherein, the first step includes converging the laser light at the silicon substrate such that a moving direction of the laser light with respect to the silicon substrate and a direction of polarization of the laser light form an angle of less than 45° therebetween, and forming the plurality of modified spots such as to align in a plurality of rows along the first part (12a, 12b) of the line, and wherein, the first step includes converging the laser light at the silicon substrate such that the moving direction of the laser light with respect to the silicon substrate and the direction of polarization of the laser light form an angle of greater than 45° therebetween, and forming the plurality of modified spots such as to align in one row along the second part (12c, 12d, 12e) of the line.
Fuel system for an internal combustion engine, which fuel system comprises a first fuel tank, a second fuel tank, a first fuel conduit, arranged in connection with the first fuel tank and the second fuel tank, a second fuel conduit, arranged in connection with the first fuel tank and the internal combustion engine, a main supply pump and a transfer pump, wherein the main supply pump is arranged to supply fuel from the first fuel tank via the second fuel conduit, and wherein the transfer pump is arranged to supply fuel from the second fuel tank to the first fuel tank via the first fuel conduit, wherein a first electric engine is arranged to operate the main supply pump and a second electric engine is arranged to operate the transfer pump, a valve device is arranged downstream of the transfer pump, which valve device has an inlet side connected with the transfer pump, and an outlet side connected with the main supply pump, characterised in that the valve device (32; 320) comprises a body surrounding a valve block (55; 550), with an inner channel (33; 330) between the inlet side (34; 340) and the outlet side (35;350), via which the fuel may flow, with a first opening (37; 370) connected with the inner channel (33; 330), and a first fuel channel, through which fuel is supplied from the first fuel tank to the main supply pump, and a second opening (39; 390) connected with the inner channel (33;330) and a second fuel channel, through which fuel is supplied from the second fuel tank to the first fuel tank, wherein the valve block (55; 550) of the valve device is arranged to be in a first open state at normal operation, during which the first and the second fuel channels (41, 43) are connected with the inner channel (33; 330) and wherein - at operational disruptions in the main supply pump, the valve block (55; 550) of the valve device is arranged to be in a second, closed state, during which the first and the second openings (37, 39; 370, 390) are moved in relation to the first and second fuel channels (41, 43), wherein the first and the second fuel channels (41, 43) are closed, or - wherein, at an operational disruption in the transfer pump, a float is arranged to close the first channel; so that the fuel flow bypasses the first fuel tank. - at operational disruptions in the main supply pump, the valve block (55; 550) of the valve device is arranged to be in a second, closed state, during which the first and the second openings (37, 39; 370, 390) are moved in relation to the first and second fuel channels (41, 43), wherein the first and the second fuel channels (41, 43) are closed, or - wherein, at an operational disruption in the transfer pump, a float is arranged to close the first channel;
Floor conveyor comprising a liftable device for picking up loads, characterized in that devices for determining the distance between obstacles located above and/or below the device for picking up loads and parts of the floor conveyor are provided.
A method performed by a network node for group transmission, the group comprising multiple User Equipment, UEs, the method comprising: Performing Hybrid Automatic Repeat ReQuest, HARQ, transmission to said UEs of the group; Receiving HARQ feedback from at least one UE of the group, in response to the HARQ transmission; Determining a quality of each received HARQ feedback; when said determined quality is below a predefined first quality threshold; increasing a number of HARQ re-transmissions to said UEs of the group that provide HARQ feedback to said network node and/or increasing a diversity distance i.e. increasing the number of Transmission Time Intervals, TTIs, between said HARQ transmission and a subsequent HARQ re-transmission; and when said determined quality is above the predefined first quality threshold and said determined quality is above a predefined second quality threshold during a predetermined number of TTIs decreasing the diversity distance and/or a number of HARQ re-transmissions to said UEs of the group that provide HARQ feedback to said network node. Performing Hybrid Automatic Repeat ReQuest, HARQ, transmission to said UEs of the group; Receiving HARQ feedback from at least one UE of the group, in response to the HARQ transmission; Determining a quality of each received HARQ feedback; when said determined quality is below a predefined first quality threshold; increasing a number of HARQ re-transmissions to said UEs of the group that provide HARQ feedback to said network node and/or increasing a diversity distance i.e. increasing the number of Transmission Time Intervals, TTIs, between said HARQ transmission and a subsequent HARQ re-transmission; and when said determined quality is above the predefined first quality threshold and said determined quality is above a predefined second quality threshold during a predetermined number of TTIs decreasing the diversity distance and/or a number of HARQ re-transmissions to said UEs of the group that provide HARQ feedback to said network node.
A stair nosing comprising: a tread section having a body and defining a tread plane, a riser section extending in a second plane generally perpendicular to the first plane, and a transition section between the tread section and the riser section, wherein at least one of the tread section and transition section includes an arrangement of protrusions, each protrusion including a base edge that is integral with the body and an outwardly extending tab extending upwardly from the tread plane at an acute angle, and wherein the tab includes at least one edge separated from the body, wherein the tab includes first and second anti-skid surfaces (36/37), characterized in that a bottom edge of the first anti-skid surface is in contact with a wall defined through the thickness of the body.
A connector comprising: a first contact comprising a plurality of contact pins (14a,14b,14c,14d) arranged in an array; a metal plate reducing crosstalk of the contact; a housing which is made of resin, accommodating one end side of each of the first contact and the metal plate; and a metal shell accommodating the first contact, the metal plate, and the housing; wherein the metal plate comprises a pair of protruding parts respectively formed toward the outside on both ends in an array direction of the contact pins (14a, 14b, 14c, 14d), characterized in that the metal plate comprises a pair of projecting parts formed toward the outside and adjacent to connector insertion sides of the protruding parts, the pair of projecting parts being brought into contact with an inside surface of the metal shell at the time of being accommodated in the metal shell; the housing comprises a pair of slits provided on both ends in the array direction of the contact pins (14a,14b,14c,14d), for insertion of the pair of protruding parts and the pair of projecting parts; and the metal shell comprises a pair of windows to be engaged with the pair of protruding parts. a first contact comprising a plurality of contact pins (14a,14b,14c,14d) arranged in an array; a metal plate reducing crosstalk of the contact; a housing which is made of resin, accommodating one end side of each of the first contact and the metal plate; and a metal shell accommodating the first contact, the metal plate, and the housing; wherein the metal plate comprises a pair of protruding parts respectively formed toward the outside on both ends in an array direction of the contact pins (14a, 14b, 14c, 14d), characterized in that the metal plate comprises a pair of projecting parts formed toward the outside and adjacent to connector insertion sides of the protruding parts, the pair of projecting parts being brought into contact with an inside surface of the metal shell at the time of being accommodated in the metal shell; the housing comprises a pair of slits provided on both ends in the array direction of the contact pins (14a,14b,14c,14d), for insertion of the pair of protruding parts and the pair of projecting parts; and the metal shell comprises a pair of windows to be engaged with the pair of protruding parts.
A sensing surface device comprising: a sensing mat including a capacitive sensing array; and a sensing module coupled to the sensing mat and configured to: detect a first object on the sensing mat at a first position; detect an event associated with the first object; detect a movement at a second position on the sensing mat; and generate an input to trigger an action in software based on both the detected event and the detected movement; characterized in that the detected movement is a detected movement of a second object on the sensing mat determined as a result of being impacted by a projectile by determining whether a time correlation between the detected movement and the detected event exists; and detecting an event comprises determining changes in capacitive footprint of the first object, wherein the detected event indicates ejection of the projectile from the first object, wherein the projectile is not detectable by the sensing surface device. detect a first object on the sensing mat at a first position; detect an event associated with the first object; detect a movement at a second position on the sensing mat; and generate an input to trigger an action in software based on both the detected event and the detected movement; characterized in that the detected movement is a detected movement of a second object on the sensing mat determined as a result of being impacted by a projectile by determining whether a time correlation between the detected movement and the detected event exists; and detecting an event comprises determining changes in capacitive footprint of the first object, wherein the detected event indicates ejection of the projectile from the first object, wherein the projectile is not detectable by the sensing surface device.
A nitric oxide-releasing polyvinylpyrrolidone-based polymer comprising at least one monomer unit derived from N -vinylpyrrolidone and at least one nitric oxide releasing N 2 O 2 - group, wherein the N 2 O 2 - group is attached to a 2-pyrrolidinone group or a group derived from the 2-pyrrolidinone group, and wherein the polymer comprises at least one monomer unit of formula or formula wherein R 1 is -CH 2 CH 2 CR 4 R 5 C OR 6, R 2, R 3, R 4, and R 5 are the same or different and each is H or N 2 O 2 M, M is hydrogen ion or a pharmaceutically acceptable cation, and R 6 is H, an unsubstituted or substituted C 1-12 alkyl, an unsubstituted or substituted C 2-8 alkenyl, an unsubstituted or substituted C 3 -C 6 cycloalkyl, a substituted or unsubstituted aryl, or C 1-12 trialkylsilyl, provided at least one of R 2-5 in formula or is N 2 O 2 M. R 1 is -CH 2 CH 2 CR 4 R 5 C OR 6, R 2, R 3, R 4, and R 5 are the same or different and each is H or N 2 O 2 M, M is hydrogen ion or a pharmaceutically acceptable cation, and R 6 is H, an unsubstituted or substituted C 1-12 alkyl, an unsubstituted or substituted C 2-8 alkenyl, an unsubstituted or substituted C 3 -C 6 cycloalkyl, a substituted or unsubstituted aryl, or C 1-12 trialkylsilyl, provided at least one of R 2-5 in formula or is N 2 O 2 M.
A method of manufacturing printed products, such as books having different sizes wherein each book comprises a plurality of text pages constituting a book block, the method comprising: sequentially printing a web of material having a given width and having a longitudinal direction in a digital printing station; sensing marks on the web of material to determine a size of a printed product currently being printed; generating a control signal based on the marks on the web of material, the control signal based on the size of a printed product currently being printed; selecting to process the web of material either with one weakening line extending parallel to a longitudinal direction of the web of material or with two weakening lines (38, 39) arranged spaced apart and extending parallel to the longitudinal direction of the web of material, wherein the selecting is based on the control signal, such that the control signal alternatively activates either a first perforating device or a second perforating device; transversely cutting the printed web of material to produce individual text sheets (11; 11') being provided with the either one weakening line or the two weakening lines (38, 39); longitudinally folding the text sheets (11; 11') along the either one weakening line or in sequence along each of the two weakening lines (38, 39); and collecting the folded text sheets (11a; 11a') belonging to a particular book block to a stack. sequentially printing a web of material having a given width and having a longitudinal direction in a digital printing station; sensing marks on the web of material to determine a size of a printed product currently being printed; generating a control signal based on the marks on the web of material, the control signal based on the size of a printed product currently being printed; selecting to process the web of material either with one weakening line extending parallel to a longitudinal direction of the web of material or with two weakening lines (38, 39) arranged spaced apart and extending parallel to the longitudinal direction of the web of material, wherein the selecting is based on the control signal, such that the control signal alternatively activates either a first perforating device or a second perforating device; transversely cutting the printed web of material to produce individual text sheets (11; 11') being provided with the either one weakening line or the two weakening lines (38, 39); longitudinally folding the text sheets (11; 11') along the either one weakening line or in sequence along each of the two weakening lines (38, 39); and collecting the folded text sheets (11a; 11a') belonging to a particular book block to a stack.