mhurhangee/patent-ind-claim-en huggingface dataset:
A keyboard comprising: a key positioned on the keyboard, the key comprising a keytop ; a sensor layer configured to detect depression of the key ; keypress mechanism configured to resiliently bias the keytop away from the sensor layer such that a gap exists between the sensor layer and the keytop when the key is not depressed; and a plurality of light-generating sources positioned substantially underneath the keytop and configured to emit light directly into the gap between the sensor layer and the keytop to illuminate the key from underneath the keytop; wherein each of the plurality of light-generating sources includes light-emitting components; characterized in that the sensor layer and the plurality of light-generating sources form an integrated layer; the keypress mechanism is positionned between the keytop and the sensor layer and comprises a scissor mechanism and a collapsible elastomeric plunger ; over half of the light-generating sources of the plurality of light-generating sources being within a footprint of the keytop and the over half of the light-generating sources being placed directly underneath the infrastructure of the key mechanics to promote diffusion; the plurality of light-generating sources are printed on the sensor layer; and a cross-section of each of the light-emitting components having a maximum length ranging from 3 to 50 microns. a key positioned on the keyboard, the key comprising a keytop ; a sensor layer configured to detect depression of the key ; keypress mechanism configured to resiliently bias the keytop away from the sensor layer such that a gap exists between the sensor layer and the keytop when the key is not depressed; and a plurality of light-generating sources positioned substantially underneath the keytop and configured to emit light directly into the gap between the sensor layer and the keytop to illuminate the key from underneath the keytop; wherein each of the plurality of light-generating sources includes light-emitting components; characterized in that the sensor layer and the plurality of light-generating sources form an integrated layer; the keypress mechanism is positionned between the keytop and the sensor layer and comprises a scissor mechanism and a collapsible elastomeric plunger ; over half of the light-generating sources of the plurality of light-generating sources being within a footprint of the keytop and the over half of the light-generating sources being placed directly underneath the infrastructure of the key mechanics to promote diffusion; the plurality of light-generating sources are printed on the sensor layer; and a cross-section of each of the light-emitting components having a maximum length ranging from 3 to 50 microns.
A camera device comprising an optics unit and a sensor unit releasably connectable to each other, and an electronic accessory releasably connectable to the optics unit , wherein the optics unit comprises optics unit connectors , which in an assembled state of the camera device each is aligned and in contact with an associated electronic accessory connector of the electronic accessory thereby forming an electric connection between the electronic accessory and the sensor unit via the optics unit , wherein the optics unit connectors and the associated electronic accessory connectors form a first group consisting of at least one optics unit connector and associated electronic accessory connector arranged for power transfer and a second group consisting of at least one optics unit connector and associated electronic accessory connector arranged for signal transfer, characterized in that the electronic accessory is releasably connectable to the optics unit by means of a threaded fitting associated with a rotation axis, wherein, in the assembled state of the camera device , the first group is arranged at a first radial distance (R1) from the rotation axis and the second group is arranged at a second radial distance (R2) from the rotation axis, the first distance being different from the second distance, wherein the first radial distance (R1) is solely occupied by the first group, and wherein the second radial distance (R2) is solely occupied by the second group. an optics unit and a sensor unit releasably connectable to each other, and an electronic accessory releasably connectable to the optics unit , wherein the optics unit comprises optics unit connectors , which in an assembled state of the camera device each is aligned and in contact with an associated electronic accessory connector of the electronic accessory thereby forming an electric connection between the electronic accessory and the sensor unit via the optics unit , wherein the optics unit connectors and the associated electronic accessory connectors form a first group consisting of at least one optics unit connector and associated electronic accessory connector arranged for power transfer and a second group consisting of at least one optics unit connector and associated electronic accessory connector arranged for signal transfer, characterized in that the electronic accessory is releasably connectable to the optics unit by means of a threaded fitting associated with a rotation axis, wherein, in the assembled state of the camera device , the first group is arranged at a first radial distance (R1) from the rotation axis and the second group is arranged at a second radial distance (R2) from the rotation axis, the first distance being different from the second distance, wherein the first radial distance (R1) is solely occupied by the first group, and wherein the second radial distance (R2) is solely occupied by the second group.
A sealable vessel for cell isolation, culture and proliferation , the vessel being a container-like structural body in which isolation, culture and proliferation of target cells of interest can be performed, wherein (A) the vessel comprises a cell separation unit , a primary culture unit and a main vessel unit ; (B) the cell separation unit is a structural body comprising a cell separation membrane having fine pores capable of isolating cells by attracting or activating movement of the target cells by utilizing chemotactic factors; (C) the primary culture unit is a container-like structural body that has a culture surface for primary culture on which cells that have passed through the cell separation membrane can be cultured and a releasing structure through which cells and a liquid that have been held inside the primary culture unit can be freely released toward a unit having a culture surface for a subsequent step, the culture surface for primary culture having a size of 10 to 400 cm 2 ; and (D) the main vessel unit is a container-like structural body that has a culture surface for cell proliferation on which cells that have been released from a culture unit for a preceding step can be cultured, the culture surface for cell proliferation being a culture surface different from the culture surface for primary culture of the primary culture unit , an area of the culture surface for cell proliferation being larger than that of a culture surface of the culture unit for the preceding step, the container-like structural body of the main vessel unit having a structure in which the cell separation unit and all of the culture unit/units for preceding step/steps can be stored. (A) the vessel comprises a cell separation unit , a primary culture unit and a main vessel unit ; (B) the cell separation unit is a structural body comprising a cell separation membrane having fine pores capable of isolating cells by attracting or activating movement of the target cells by utilizing chemotactic factors; (C) the primary culture unit is a container-like structural body that has a culture surface for primary culture on which cells that have passed through the cell separation membrane can be cultured and a releasing structure through which cells and a liquid that have been held inside the primary culture unit can be freely released toward a unit having a culture surface for a subsequent step, the culture surface for primary culture having a size of 10 to 400 cm 2 ; and (D) the main vessel unit is a container-like structural body that has a culture surface for cell proliferation on which cells that have been released from a culture unit for a preceding step can be cultured, the culture surface for cell proliferation being a culture surface different from the culture surface for primary culture of the primary culture unit , an area of the culture surface for cell proliferation being larger than that of a culture surface of the culture unit for the preceding step, the container-like structural body of the main vessel unit having a structure in which the cell separation unit and all of the culture unit/units for preceding step/steps can be stored.
An apparatus comprising: a plurality of cores ; and an interrupt controller configured to group interrupts into a plurality of interrupt domains (1111 - 1113), each interrupt domain configured to have a set of interrupts assigned thereto and to map the interrupts in the set to one or more destination cores of the plurality of cores , in response to arrival of a new interrupt, the interrupt controller is configured to consult the interrupt domain to identify a core to process the new interrupt; and characterized in that upon a reassignment event comprising a processing load on one or more of the processor cores reaching a specified threshold or being higher than processing load on one or more other cores by a threshold difference in processing load, the interrupt controller is configured to dynamically reassign the one or more interrupt domains (1111 - 1113) from the core with the relatively greater processing load to one or more cores with relatively lower processing load. a plurality of cores ; and an interrupt controller configured to group interrupts into a plurality of interrupt domains (1111 - 1113), each interrupt domain configured to have a set of interrupts assigned thereto and to map the interrupts in the set to one or more destination cores of the plurality of cores , in response to arrival of a new interrupt, the interrupt controller is configured to consult the interrupt domain to identify a core to process the new interrupt; and characterized in that upon a reassignment event comprising a processing load on one or more of the processor cores reaching a specified threshold or being higher than processing load on one or more other cores by a threshold difference in processing load, the interrupt controller is configured to dynamically reassign the one or more interrupt domains (1111 - 1113) from the core with the relatively greater processing load to one or more cores with relatively lower processing load.
A seat device for a vehicle, comprising: a baby back supporting portion being a divided part of a seat cushion of a seat , the divided part being configured to be raised to form a backrest portion (BPb) of a baby seat at a position facing a seatback of said seat ; and characterized in that a baby back airbag is provided at the baby back supporting portion ; wherein the backrest portion (BPb) of the baby seat is formed with a baby seat support shape (SSb) in a seat width direction by an expansion of the baby back airbag , and the baby back supporting portion includes a paddle which is configured to be pressed to be rotated by the expanded baby back airbag to form the baby seat support shape (SSb). a baby back supporting portion being a divided part of a seat cushion of a seat , the divided part being configured to be raised to form a backrest portion (BPb) of a baby seat at a position facing a seatback of said seat ; and characterized in that a baby back airbag is provided at the baby back supporting portion ; wherein the backrest portion (BPb) of the baby seat is formed with a baby seat support shape (SSb) in a seat width direction by an expansion of the baby back airbag , and the baby back supporting portion includes a paddle which is configured to be pressed to be rotated by the expanded baby back airbag to form the baby seat support shape (SSb).
Tyre having a radial carcass reinforcement comprising a crown reinforcement, itself capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, said tread comprising at least one layer of polymer compound forming a tread surface intended to come into contact with a road surface, the value of deformation at break in elongation of said layer of polymer compound forming the tread surface being greater than or equal to 550%, characterized in that the ratio of the maximum value of tan(δ), denoted tan(δ)max, measured at 60°C on the forward cycle, of said layer of polymer compound forming the tread surface to the complex dynamic shear modulus G*, measured at 25% and 60°C on the forward cycle of said layer of polymer compound forming the contact surface is less than 0.065.
A pulse wave measurement device comprising: a pressure pulse wave sensor which includes: a semiconductor substrate on which a pressure-sensitive element (S) and a first terminal portion that is electrically connected to the pressure-sensitive element (S) are formed; and a rigid substrate which includes a second terminal portion that is electrically connected to the first terminal portion , and to which the semiconductor substrate is fixed; a flexible substrate which includes a wiring that is electrically connected to the second terminal portion , and to which the rigid substrate of the pressure pulse wave sensor is fixed; and a protective layer which is made from an insulating material, and which covers and protects the semiconductor substrate of the pressure pulse wave sensor , wherein the flexible substrate includes: a connector which is connected to the wiring ; and a terminal (G1, G2) which is held at a potential equal to a potential of the semiconductor substrate , and which is outwardly exposed in a position different from the connector , the outwardly exposed terminal (G1, G2) is in contact with the protective layer , and a pressure-sensitive surface of the semiconductor substrate on which the pressure-sensitive element (S) is formed is arranged to be pressed through the protective layer against a body surface of a living body, characterized in that the outwardly exposed terminal (G1, G2) is a portion of an exposed part of the wiring connected to the connector . a pressure pulse wave sensor which includes: a semiconductor substrate on which a pressure-sensitive element (S) and a first terminal portion that is electrically connected to the pressure-sensitive element (S) are formed; and a rigid substrate which includes a second terminal portion that is electrically connected to the first terminal portion , and to which the semiconductor substrate is fixed; a flexible substrate which includes a wiring that is electrically connected to the second terminal portion , and to which the rigid substrate of the pressure pulse wave sensor is fixed; and a protective layer which is made from an insulating material, and which covers and protects the semiconductor substrate of the pressure pulse wave sensor , wherein the flexible substrate includes: a connector which is connected to the wiring ; and a terminal (G1, G2) which is held at a potential equal to a potential of the semiconductor substrate , and which is outwardly exposed in a position different from the connector , the outwardly exposed terminal (G1, G2) is in contact with the protective layer , and a pressure-sensitive surface of the semiconductor substrate on which the pressure-sensitive element (S) is formed is arranged to be pressed through the protective layer against a body surface of a living body, characterized in that the outwardly exposed terminal (G1, G2) is a portion of an exposed part of the wiring connected to the connector .
A packaged semiconductor structure, comprising: an interconnect layer ; a first microelectronic device on a first major surface of the interconnect layer ; a substrate having a cavity , wherein the cavity is defined by a vertical portion and a horizontal portion , wherein the vertical portion surrounds the first microelectronic device , the horizontal portion is over the first microelectronic device , and the first microelectronic device is between the horizontal portion and the first major surface of the interconnect layer such that the first device is in the cavity ; a second microelectronic device attached to the horizontal portion of the substrate ; and an encapsulant on the interconnect layer and surrounding the first microelectronic device , the substrate , and the second microelectronic device , such that the substrate is embedded in the encapsulant ; and characterized by a plurality of interconnects on the vertical portion of the substrate , wherein the encapsulant exposes a portion of each interconnect of the plurality of interconnects. an interconnect layer ; a first microelectronic device on a first major surface of the interconnect layer ; a substrate having a cavity , wherein the cavity is defined by a vertical portion and a horizontal portion , wherein the vertical portion surrounds the first microelectronic device , the horizontal portion is over the first microelectronic device , and the first microelectronic device is between the horizontal portion and the first major surface of the interconnect layer such that the first device is in the cavity ; a second microelectronic device attached to the horizontal portion of the substrate ; and an encapsulant on the interconnect layer and surrounding the first microelectronic device , the substrate , and the second microelectronic device , such that the substrate is embedded in the encapsulant ; and characterized by a plurality of interconnects on the vertical portion of the substrate , wherein the encapsulant exposes a portion of each interconnect of the plurality of interconnects.
Folding coulter for a clearing device with a clearing blade, comprising a) a folding bar ; b) a lever mechanism for pivotally mounting the folding bar on a base part of the clearing blade; c) a spring element for arrangement between the base part and the lever mechanism, for resetting the folding bar to an initial position in which the folding bar forms an extension of a blade plate of the clearing blade, wherein the lever mechanism is configured such that the folding bar can be pivoted along a first swivel path out of the initial position into a swivelled-back position while overcoming a spring force of the spring element and such that the folding bar can be pivoted along a second swivel path out of the swivelled-back position into the initial position due to the spring force, characterised in that the lever mechanism is configured such that the second swivel path is different from the first swivel path. a) a folding bar ; b) a lever mechanism for pivotally mounting the folding bar on a base part of the clearing blade; c) a spring element for arrangement between the base part and the lever mechanism, for resetting the folding bar to an initial position in which the folding bar forms an extension of a blade plate of the clearing blade, wherein the lever mechanism is configured such that the folding bar can be pivoted along a first swivel path out of the initial position into a swivelled-back position while overcoming a spring force of the spring element and such that the folding bar can be pivoted along a second swivel path out of the swivelled-back position into the initial position due to the spring force, characterised in that the lever mechanism is configured such that the second swivel path is different from the first swivel path.
An automotive transmission control apparatus comprising: a housing ; a main shaft disposed in the housing ; a driving unit coupled to the main shaft and configured to be driven based on a signal for controlling a gear position of a transmission; a reduction unit housed within the driving unit ; and an output unit configured to receive a rotational force of the reduction unit and output the rotational force with a reduced rotational speed, wherein the reduction unit comprises: an inner gear member eccentrically coupled to the main shaft and including a first gear portion and a second gear portion ; and an outer gear member fixed to the housing and including a first receiving gear portion engaged with the first gear portion , wherein the output unit comprises a second receiving gear portion engaged with the second gear portion , wherein the output unit comprises: an output body provided with the second receiving gear portion ; and an output shaft protruding from the output body , wherein the main shaft is inserted into the output shaft , and wherein the output shaft is configured to transmit the rotational force of the reduction unit , and wherein the inner gear member , the outer gear member , and the output body are received within the driving unit . a housing ; a main shaft disposed in the housing ; a driving unit coupled to the main shaft and configured to be driven based on a signal for controlling a gear position of a transmission; a reduction unit housed within the driving unit ; and an output unit configured to receive a rotational force of the reduction unit and output the rotational force with a reduced rotational speed, wherein the reduction unit comprises: an inner gear member eccentrically coupled to the main shaft and including a first gear portion and a second gear portion ; and an outer gear member fixed to the housing and including a first receiving gear portion engaged with the first gear portion , an inner gear member eccentrically coupled to the main shaft and including a first gear portion and a second gear portion ; and an outer gear member fixed to the housing and including a first receiving gear portion engaged with the first gear portion , wherein the output unit comprises a second receiving gear portion engaged with the second gear portion , wherein the output unit comprises: an output body provided with the second receiving gear portion ; and an output shaft protruding from the output body , wherein the main shaft is inserted into the output shaft , and wherein the output shaft is configured to transmit the rotational force of the reduction unit , and wherein the inner gear member , the outer gear member , and the output body are received within the driving unit . an output body provided with the second receiving gear portion ; and an output shaft protruding from the output body , wherein the main shaft is inserted into the output shaft , and wherein the output shaft is configured to transmit the rotational force of the reduction unit , and wherein the inner gear member , the outer gear member , and the output body are received within the driving unit .