mhurhangee/ep-ind-claims huggingface dataset:
A tamper-protected semiconductor module characterized by comprising: a package housing a hardware module and comprising a shielding or being enclosed by a shielding to prevent interference with a predetermined excitation from the outside of the tamper-protected hardware; the hardware module comprising one or more emitters adapted to emit said predetermined excitation that can be measured as a physical measurand, and one or more sensors adapted to sense the (back-) scatter of the excitation in form of the physical measurand in a contactless and/or contact-based manner, and wherein the package being adapted to influence the (back-) scatter of the predetermined excitation to be sensed by the sensors, and wherein the measured (back-) scatter of the predetermined excitation influenced by the package provides a Physical Unclonable Function, PUF, wherein the tamper-protected semiconductor module is adapted to generate a digital measured fingerprint of the tamper-protected semiconductor module from the measured values of the (back-) scatter of the excitation provided by the respective sensors, and further being adapted to detect an attempt to tamper the tamper-protected semiconductor module by comparing the digital measured fingerprint with a fingerprint of the un-tampered tamper-protected semiconductor module. a package housing a hardware module and comprising a shielding or being enclosed by a shielding to prevent interference with a predetermined excitation from the outside of the tamper-protected hardware; the hardware module comprising one or more emitters adapted to emit said predetermined excitation that can be measured as a physical measurand, and one or more sensors adapted to sense the (back-) scatter of the excitation in form of the physical measurand in a contactless and/or contact-based manner, and wherein the package being adapted to influence the (back-) scatter of the predetermined excitation to be sensed by the sensors, and wherein the measured (back-) scatter of the predetermined excitation influenced by the package provides a Physical Unclonable Function, PUF, wherein the tamper-protected semiconductor module is adapted to generate a digital measured fingerprint of the tamper-protected semiconductor module from the measured values of the (back-) scatter of the excitation provided by the respective sensors, and further being adapted to detect an attempt to tamper the tamper-protected semiconductor module by comparing the digital measured fingerprint with a fingerprint of the un-tampered tamper-protected semiconductor module.
A combination, comprising: a work table defining a working surface for placing a workpiece; and a fence assembly comprising a fence, the fence being rotatably mounted on the work table, the fence comprising: a first contacting surface which is arranged to provide an abutting surface when the fence is rotated to an abutting position and which is arranged to provide an extending surface when the fence is rotated to an extending position; a second contacting surface which is arranged to provide a supporting surface when the fence is rotated to a supporting position; and a third contacting surface which is arranged to provide an abutting surface when the fence is rotated to the supporting position; wherein, when the fence is in the abutting position, the first contacting surface is substantially perpendicular to the working surface, when the fence is in the extending position, the first contacting surface is substantially parallel to the working surface, and, when the fence is in the supporting position, the second contacting surface is substantially parallel to the working surface and the third contacting surface is substantially perpendicular to the working surface characterized in that the first contacting surface is substantially parallel to the third contacting surface. a work table defining a working surface for placing a workpiece; and a fence assembly comprising a fence, the fence being rotatably mounted on the work table, the fence comprising: a first contacting surface which is arranged to provide an abutting surface when the fence is rotated to an abutting position and which is arranged to provide an extending surface when the fence is rotated to an extending position; a second contacting surface which is arranged to provide a supporting surface when the fence is rotated to a supporting position; and a third contacting surface which is arranged to provide an abutting surface when the fence is rotated to the supporting position; a first contacting surface which is arranged to provide an abutting surface when the fence is rotated to an abutting position and which is arranged to provide an extending surface when the fence is rotated to an extending position; a second contacting surface which is arranged to provide a supporting surface when the fence is rotated to a supporting position; and a third contacting surface which is arranged to provide an abutting surface when the fence is rotated to the supporting position; wherein, when the fence is in the abutting position, the first contacting surface is substantially perpendicular to the working surface,
A platform system comprising a platform including a plurality of sides and a plurality of components that are configured to connect to the platform, characterized in that the platform is square and is created from a single, continuous piece of sheet metal that is cut and folded to form the platform, and wherein each side of the platform defines a set of apertures, wherein the set of apertures allow the respective side of the platform to interchangeably connect to the plurality of components.
A method comprising: responding, at a storage node in an overlay distributed hash table, DHT, network in a system of DHT networks, the networks in the system not being fully meshed with each other, to storage of a piece of content provided by a particular content provider by: generating a content key used to identify a storage location of the piece of content by hashing an extensible resource identifier, xri, of the piece of content; and generating a content provider identifier, CPI, key associated with the particular content provider by hashing a content provider string in the xri, the CPI key indicating a subset of DHT networks in the system of DHT networks at which the piece of content provided by the particular content provider might be stored; sending the content key only to respective root nodes of the subset of DHT networks using a multicast PUT; and publishing the CPI key using a PUT only to desired DHT networks in the system of DHT networks apart from the subset of DHT networks the desired DHT networks being defined by the particular content provider. responding, at a storage node in an overlay distributed hash table, DHT, network in a system of DHT networks, the networks in the system not being fully meshed with each other, to storage of a piece of content provided by a particular content provider by: generating a content key used to identify a storage location of the piece of content by hashing an extensible resource identifier, xri, of the piece of content; and generating a content provider identifier, CPI, key associated with the particular content provider by hashing a content provider string in the xri, the CPI key indicating a subset of DHT networks in the system of DHT networks at which the piece of content provided by the particular content provider might be stored; generating a content key used to identify a storage location of the piece of content by hashing an extensible resource identifier, xri, of the piece of content; and generating a content provider identifier, CPI, key associated with the particular content provider by hashing a content provider string in the xri, the CPI key indicating a subset of DHT networks in the system of DHT networks at which the piece of content provided by the particular content provider might be stored; sending the content key only to respective root nodes of the subset of DHT networks using a multicast PUT; and publishing the CPI key using a PUT only to desired DHT networks in the system of DHT networks apart from the subset of DHT networks the desired DHT networks being defined by the particular content provider.
Vehicle seat having height adjustment kinematics, the height adjustment kinematics having, on each of two seat sides arranged offset with respect to each other in a transverse direction (y), in each case a four-joint arrangement (I, II, III, IV) and an adjustment arm, each of the two four-joint arrangements (I, II, III, IV) in each case having a base, a side part, a front link and a rear link as transmission members of the four-joint arrangement (I, II, III, IV), wherein a first rotary joint connects the base pivotably to the rear link, a second rotary joint connects the rear link pivotably to the side part, a third rotary joint connects the side part pivotably to the front link, and a fourth rotary joint connects the front link pivotably to the base, wherein each of the two four-joint arrangements (I, II, III, IV) is in each case adjustable by one of the two adjustment arms, wherein a drive device having precisely one geared motor drives the two adjustment arms, wherein at least one of two front links has a slot in which a pin is arranged, wherein the pin and the slot form an end stop for the height adjustment kinematics, and/or at least one of the two rear links has a slot in which a stop bolt is arranged, wherein the stop bolt and the slot form an end stop for the height adjustment kinematics.
Method for preparing a metal part so as to measure the temperature thereof by optical pyrometry when the part is put under pressure under uniaxial deformation conditions of the shock type or of the isentropic compression type, the method comprising the formation of an emissive coating on a face of the metal part, the method further comprising the fixing, on the emissive coating, of an anvil window, and being characterised in that the emissive coating has a thickness of between 250 nm and 550 nm and comprises a first layer of amorphous carbon and a second layer of amorphous carbon, the first layer being interposed between the face of the metal part and the second layer, and having a degree of carbon hybridisation sp 3 greater than the degree of carbon hybridisation sp 3 of the second layer.
A portable intravenous stand comprising: a base member including a plurality of segments substantially lying in a first plane, wherein an end of a first segment of the plurality of segments is connected to an end of a second segment of the plurality of segments so that an angle is formed between the first and second segment; an outrigger member extending between and beyond the first and the second segments of the plurality of segments of the base member such that the outrigger member extends past the adjacent segments to provide additional stability to the stand and connected to the first and the second segments of the plurality of segments of the base member, wherein the outrigger member includes a portion being elevated above a portion of the plurality of segments to facilitate positioning another similarly configured portable intravenous stand there under and proximate thereto; a plurality of rotating members operatively connected proximate to ends of each of the plurality of segments of the base member and the outrigger member; and, a support integral to the base member which supports a pole member substantially perpendicular to the first plane. a base member including a plurality of segments substantially lying in a first plane, wherein an end of a first segment of the plurality of segments is connected to an end of a second segment of the plurality of segments so that an angle is formed between the first and second segment; an outrigger member extending between and beyond the first and the second segments of the plurality of segments of the base member such that the outrigger member extends past the adjacent segments to provide additional stability to the stand and connected to the first and the second segments of the plurality of segments of the base member, wherein the outrigger member includes a portion being elevated above a portion of the plurality of segments to facilitate positioning another similarly configured portable intravenous stand there under and proximate thereto; a plurality of rotating members operatively connected proximate to ends of each of the plurality of segments of the base member and the outrigger member; and, a support integral to the base member which supports a pole member substantially perpendicular to the first plane.
An avalanche photodiode comprising: a first semiconductor contact layer, formed in a center of a cap layer by local doping, in contact with a first electrode; a second semiconductor contact layer in contact with a second electrode; and a multiplication layer formed between the first semiconductor contact layer and the second semiconductor contact layer, wherein the first semiconductor contact layer has smaller area than an area of the multiplication layer; a N-type InAlAs electric field control layer and a P-type InAlAs electric field control layer formed above and below and adjacent to the multiplication layer; a light absorbing layer formed between and adjacent to the electric field control layer and the second semiconductor contact layer; and, an electric field relaxation layer formed between and adjacent to the first semiconductor contact layer and the N-type electric field control layer and configured to be depleted at an operating voltage between the first semiconductor contact layer and the multiplication layer, wherein the first semiconductor contact layer consists of N-type InAlAs, the second semiconductor contact layer consists of P-type InP, the multiplication layer consists of InAlAs, the light absorbing layer consists of undoped InGaAs, the cap layer consists of InAlAs, and the electric field relaxation layer consists of InP. a first semiconductor contact layer, formed in a center of a cap layer by local doping, in contact with a first electrode; a second semiconductor contact layer in contact with a second electrode; and a multiplication layer formed between the first semiconductor contact layer and the second semiconductor contact layer, wherein the first semiconductor contact layer has smaller area than an area of the multiplication layer; a N-type InAlAs electric field control layer and a P-type InAlAs electric field control layer formed above and below and adjacent to the multiplication layer; a light absorbing layer formed between and adjacent to the electric field control layer and the second semiconductor contact layer; and, an electric field relaxation layer formed between and adjacent to the first semiconductor contact layer and the N-type electric field control layer and configured to be depleted at an operating voltage between the first semiconductor contact layer and the multiplication layer, wherein the first semiconductor contact layer consists of N-type InAlAs, the second semiconductor contact layer consists of P-type InP, the multiplication layer consists of InAlAs, the light absorbing layer consists of undoped InGaAs, the cap layer consists of InAlAs, and the electric field relaxation layer consists of InP.
A dispenser for dispensing soap or sanitizer, comprising: a back plate; a container insert removably securable to the back plate; and a cover pivotally engaged to the back plate and the container insert, characterized in that the container insert comprises a first side defining a first container receiving feature, into which a container can be received when the container insert is engaged to the back plate in a first orientation, and a second side, opposite the first side, defining a second container receiving feature that has a different configuration or size than the first container receiving feature into which a differently configured or sized container can be alternately received when the container insert is engaged to the back plate in a second orientation different from the first orientation. a back plate; a container insert removably securable to the back plate; and a cover pivotally engaged to the back plate and the container insert, characterized in that the container insert comprises a first side defining a first container receiving feature, into which a container can be received when the container insert is engaged to the back plate in a first orientation, and a second side, opposite the first side, defining a second container receiving feature that has a different configuration or size than the first container receiving feature into which a differently configured or sized container can be alternately received when the container insert is engaged to the back plate in a second orientation different from the first orientation.
A frame, in particular for a universal carrier, wherein the frame comprises a chassis of the frame, a left axle with two portal suspensions (6a, 6b) at the ends of the left axle, a right axle with two portal suspensions (6c, 6d) at the ends of the right axle, and a transverse double-sided stabilising lever, the portal suspensions (6a, 6b) of the left axle and the portal suspensions (6c, 6d) of the right axle are provided with wheels (5a, 5b, 5c, 5d), characterised in that the portal suspensions (6a, 6b, 6c, 6d) are rotatable through 360 degrees about the vertical axes (12, 13, 17, 18), wherein the left axle and the right axle are directly connected by the transverse double-sided stabilising lever which is pivotally mounted on the chassis of the frame, in which the left axle is independently mounted on the chassis in the longitudinal direction via a first centre pivot and the right axle is independently mounted on the chassis in the longitudinal direction via a second centre pivot. the frame comprises a chassis of the frame, a left axle with two portal suspensions (6a, 6b) at the ends of the left axle, a right axle with two portal suspensions (6c, 6d) at the ends of the right axle, and a transverse double-sided stabilising lever, the portal suspensions (6a, 6b) of the left axle and the portal suspensions (6c, 6d) of the right axle are provided with wheels (5a, 5b, 5c, 5d), characterised in that the portal suspensions (6a, 6b, 6c, 6d) are rotatable through 360 degrees about the vertical axes (12, 13, 17, 18), wherein the left axle and the right axle are directly connected by the transverse double-sided stabilising lever which is pivotally mounted on the chassis of the frame, in which the left axle is independently mounted on the chassis in the longitudinal direction via a first centre pivot and the right axle is independently mounted on the chassis in the longitudinal direction via a second centre pivot.
A cellular communication network comprising a base station serving a radio cell and at least a first and a second user equipment (13 1, 13 2) located within said radio cell, wherein the base station is configured to receive a first radio signal (14 1) from the first user equipment (13 1) and to receive a second radio signal (14 2) from the second user equipment (13 2) and to determine at least one physical signal property of said received first and second radio signals (14 1, 14 2), wherein the base station is further configured to assign a user equipment identifier to each of said first and second user equipments (13 1, 13 2), wherein the base station comprises a first group (c 1) of user equipment identifiers and a second group (c 2) of user equipment identifiers, wherein at least one of the user equipment identifiers of the first group (c 1) is identical to at least one of the user equipment identifiers of the second group (c 2), or wherein all of the user equipment identifiers of the first group (c 1) are identical to the user equipment identifiers of the second group (c 2), and wherein the base station is configured to selectively assign a user equipment identifier (16 1A) of the first group (c 1) to the first user equipment (13 1) and an identical user equipment identifier (16 1A) of the second group (c 2) to the second user equipment (13 2) based on the at least one determined physical signal property of said first and second user equipments (13 1, 13 2). wherein the base station is configured to receive a first radio signal (14 1) from the first user equipment (13 1) and to receive a second radio signal (14 2) from the second user equipment (13 2) and to determine at least one physical signal property of said received first and second radio signals (14 1, 14 2), wherein the base station is further configured to assign a user equipment identifier to each of said first and second user equipments (13 1, 13 2), wherein the base station comprises a first group (c 1) of user equipment identifiers and a second group (c 2) of user equipment identifiers, wherein at least one of the user equipment identifiers of the first group (c 1) is identical to at least one of the user equipment identifiers of the second group (c 2), or wherein all of the user equipment identifiers of the first group (c 1) are identical to the user equipment identifiers of the second group (c 2), and wherein the base station is configured to selectively assign a user equipment identifier (16 1A) of the first group (c 1) to the first user equipment (13 1) and an identical user equipment identifier (16 1A) of the second group (c 2) to the second user equipment (13 2) based on the at least one determined physical signal property of said first and second user equipments (13 1, 13 2).
Impactor for the analysis of a carrier gas enriched with suspended particles, with a classifying nozzle unit having at least one classifying nozzle and with just one impact plate, the impact plate being formed as a resonantly oscillating, mass-sensitive element (7, 33) and the resonantly oscillating, mass-sensitive element (7, 33) being secured in an impact plate holder, characterized in that the impact plate holder is arranged such that it can be moved in relation to the classifying nozzle by a motor, so that a point of impingement of the carrier gas enriched with suspended particles on the impact plate migrates along an arc of a circle or along a circle, a center point coinciding with an axis of the rotating or pivoting movement, on the impact plate and a depositing location of the suspended particles on the resonantly oscillating, mass-sensitive element can be changed during a depositing process, the point of impingement being guided by the relative movement along a line of constant mass sensitivity, in that the resonantly oscillating, mass-sensitive element (7, 33) is electrically connected to a flexible connecting cable and in that the connecting cable is dimensioned such that a rotating or pivoting movement of the impact plate holder is made possible within a prescribed rotating or pivoting range.