mhurhangee/ep-ind-claims huggingface dataset:
A method for sending a grant signalling, comprising: configuring one Multi-Physical Downlink Control Channel, M-PDCCH; and sending a grant signalling to N pieces of User Equipment, UE, through the M-PDCCH, wherein N is a positive integer more than 1, characterized in that a control information format of the M-PDCCH comprises: a common information field and a UE-specific information field, wherein the common information field and/or the UE-specific information field contains the grant signalling; wherein the sent grant signalling comprises: a shared grant signalling; wherein the method further comprising: sending a common grant signalling to the N pieces of UE and sending a UE-specific grant signalling to each of one or more pieces of UE in the N pieces of UE, wherein one or more of the shared grant signalling, the UE-specific grant signalling and the common grant signalling are sent to the N pieces of UE; wherein sending the shared grant signalling comprises: sending, through the M-PDCCH, the shared grant signalling to the N pieces of UE in a search space shared by the N pieces of UE; sending the common grant signalling comprises: sending the common grant signalling to the N pieces of the UE in a common search space; and sending the UE-specific grant signalling comprises: sending the UE-specific grant signalling in one or more of the common search space, the search space shared by the N pieces of the UE and a UE-specific search space. configuring one Multi-Physical Downlink Control Channel, M-PDCCH; and sending a grant signalling to N pieces of User Equipment, UE, through the M-PDCCH, wherein N is a positive integer more than 1, characterized in that a control information format of the M-PDCCH comprises: a common information field and a UE-specific information field, wherein the common information field and/or the UE-specific information field contains the grant signalling; wherein the sent grant signalling comprises: a shared grant signalling; wherein the method further comprising: sending a common grant signalling to the N pieces of UE and sending a UE-specific grant signalling to each of one or more pieces of UE in the N pieces of UE, wherein one or more of the shared grant signalling, the UE-specific grant signalling and the common grant signalling are sent to the N pieces of UE; wherein sending the shared grant signalling comprises: sending, through the M-PDCCH, the shared grant signalling to the N pieces of UE in a search space shared by the N pieces of UE; sending the common grant signalling comprises: sending the common grant signalling to the N pieces of the UE in a common search space; and sending the UE-specific grant signalling comprises: sending the UE-specific grant signalling in one or more of the common search space, the search space shared by the N pieces of the UE and a UE-specific search space.
A method for provisioning a plurality of integrated circuits, ICs, the method comprising: providing, by a first entity to a second entity, the plurality of ICs for use in a plurality of manufactured products, wherein each IC of the plurality of ICs includes a first key pair and a unique identifier, UID; generating, by the first entity, a plurality of second key pairs, wherein the plurality of second key pairs is not related to the plurality of ICs; receiving, by the first entity, a plurality of product types from the second entity; generating, by the first entity, a plurality of certificates using the plurality of UlDs and the plurality of second key pairs, wherein each certificate is generated for a specific combination of one of said UIDs and one of said product types, and wherein portions of the plurality of second key pairs are associated with the plurality of product types; and transmitting the plurality of certificates from a first computer system of the first entity to a second computer system, the second computer system under physical control of the second entity, wherein the second entity is enabled by the first entity to access the plurality of certificates in the second computer system and to inject at least a portion of the plurality of ICs with selected certificates of the plurality of certificates. providing, by a first entity to a second entity, the plurality of ICs for use in a plurality of manufactured products, wherein each IC of the plurality of ICs includes a first key pair and a unique identifier, UID; generating, by the first entity, a plurality of second key pairs, wherein the plurality of second key pairs is not related to the plurality of ICs; receiving, by the first entity, a plurality of product types from the second entity; generating, by the first entity, a plurality of certificates using the plurality of UlDs and the plurality of second key pairs, wherein each certificate is generated for a specific combination of one of said UIDs and one of said product types, and wherein portions of the plurality of second key pairs are associated with the plurality of product types; and transmitting the plurality of certificates from a first computer system of the first entity to a second computer system, the second computer system under physical control of the second entity, wherein the second entity is enabled by the first entity to access the plurality of certificates in the second computer system and to inject at least a portion of the plurality of ICs with selected certificates of the plurality of certificates.
A glasses-type electronic device comprising: a housing; a lens frame unit provided as a part of the housing; a first wearing unit extending from one end of the lens frame unit; a first PCB (601, 711) accommodated in the first wearing unit; a second wearing unit extending from another end of the lens frame unit; a second PCB (602, 712) accommodated in the second wearing unit; and a flexible PCB (FPCB) extending from the first PCB through the lens frame unit and electrically connected to the second PCB, wherein, the FPCB is disposed in the lens frame unit, the FPCB includes a plurality of layers (2-7, 902-907) configured to provide a power or signal wiring line, and the plurality of layers include a first wiring line for a first signal, which is disposed in at least one of the uppermost layer or the lowermost layer of the plurality of layers, and a second wiring line for a second signal, which is disposed in an inner layer disposed between the uppermost layer and the lowermost layer among the plurality of layers, wherein the first signal has a higher speed than that of the second signal. a housing; a lens frame unit provided as a part of the housing; a first wearing unit extending from one end of the lens frame unit; a first PCB (601, 711) accommodated in the first wearing unit; a second wearing unit extending from another end of the lens frame unit; a second PCB (602, 712) accommodated in the second wearing unit; and a flexible PCB (FPCB) extending from the first PCB through the lens frame unit and electrically connected to the second PCB, wherein, the FPCB is disposed in the lens frame unit, the FPCB includes a plurality of layers (2-7, 902-907) configured to provide a power or signal wiring line, and the plurality of layers include a first wiring line for a first signal, which is disposed in at least one of the uppermost layer or the lowermost layer of the plurality of layers, and a second wiring line for a second signal, which is disposed in an inner layer disposed between the uppermost layer and the lowermost layer among the plurality of layers, wherein the first signal has a higher speed than that of the second signal.
A multilayered wound care product comprising: (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer; and (c) an active agent-releasing bottom layer; wherein the occlusive layer and the active agent-releasing layer are sheet-like layers with pores or perforations, wherein each pore or perforation is a common pore or perforation that extends through the whole thickness of both the intermediate layer and the active agent-releasing layer that enable the passage of wound exudate through the common pores or perforations of the said two layers to reach the liquid-absorbing layer and simultaneously enable the release of the active agent from the area between the pores or perforations to enter the wound site. (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer; and (c) an active agent-releasing bottom layer;
A garment bag, wherein the garment bag, in a basic configuration, is formed flat and has a defined peripheral shape which is defined by a peripheral shape of a front side and a peripheral shape of a rear side which is substantially identical in shape and which can be laid flat onto the front side, and wherein the garment bag is configured and adapted to receive, in a freely hanging manner, at least one garment hanging on a clothes hanger, such as a shirt, wherein the garment bag has a first section and a second section, wherein the first section is provided to be tucked into the second section and the garment bag can thereby be transformed into a laundry container forming a receiving volume, characterized in that the first section is made of less stiff material and the second section is made of stiffer material, and in that the second section, which is formed from stiffer material, can be set into a tubular state and the laundry container is configured to stand on its own when the second section stands on one of its end faces in the tubular state. wherein the garment bag, in a basic configuration, is formed flat and has a defined peripheral shape which is defined by a peripheral shape of a front side and a peripheral shape of a rear side which is substantially identical in shape and which can be laid flat onto the front side, and wherein the garment bag is configured and adapted to receive, in a freely hanging manner, at least one garment hanging on a clothes hanger, such as a shirt, wherein the garment bag has a first section and a second section, wherein the first section is provided to be tucked into the second section and the garment bag can thereby be transformed into a laundry container forming a receiving volume, characterized in that the first section is made of less stiff material and the second section is made of stiffer material, and in that the second section, which is formed from stiffer material, can be set into a tubular state and the laundry container is configured to stand on its own when the second section stands on one of its end faces in the tubular state.
A method of producing a circuit board element comprising the following steps: a) providing a conducting wire or a plate-like shaped part consisting of an electrically conductive material, b) contacting the conducting wire or the plate-like shaped part with an electrically conductive foil at at least one contact point, the contacting of the conducting wire or of the plate-like shaped part with the foil being executed by welding, c) applying a cover layer to the side (4a, 4b) of the foil contacting the conducting wire or the plate-like shaped part, characterized in that the surface (2o, 3o) of the conducting wire or of the plate-like shaped part is at least partially roughened prior to step c), and that the cover layer is brought into contact with the roughened surface (2o, 3o) of the conducting wire or of the plate-like shaped part in step c). a) providing a conducting wire or a plate-like shaped part consisting of an electrically conductive material, b) contacting the conducting wire or the plate-like shaped part with an electrically conductive foil at at least one contact point, the contacting of the conducting wire or of the plate-like shaped part with the foil being executed by welding, c) applying a cover layer to the side (4a, 4b) of the foil contacting the conducting wire or the plate-like shaped part,
A pressure sensor module comprising: a housing comprising a body portion, the body portion comprising a pressure port and an annular recess surrounding an opening of the pressure port; and a pressure sensor apparatus disposed within the housing; wherein the pressure sensor apparatus comprises: a pressure sensitive structure; a device package comprising a profiled interface region, the profiled interface region comprising a front side and a back side; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port; the back side comprises a first surrounding ridge structure; the profiled interface region comprises an aperture for providing access to the pressure port; and the front side of the profiled interface region comprises a third surrounding ridge structure adhered at least in part in the annular recess by an adhesive to secure the pressure sensor apparatus to the pressure port and to mate sealingly the front side of the profiled interface region against the pressure port. characterized in that the back side further comprises a second surrounding ridge structure. a housing comprising a body portion, the body portion comprising a pressure port and an annular recess surrounding an opening of the pressure port; and a pressure sensor apparatus disposed within the housing; wherein the pressure sensor apparatus comprises: a pressure sensitive structure; a device package comprising a profiled interface region, the profiled interface region comprising a front side and a back side; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port; the back side comprises a first surrounding ridge structure; the profiled interface region comprises an aperture for providing access to the pressure port; and a pressure sensitive structure; a device package comprising a profiled interface region, the profiled interface region comprising a front side and a back side; and a lead frame encapsulated at least in part by the device package and operably coupled to the pressure sensitive structure; wherein the front side sealingly abuts against an opposing surface to dock directly with the pressure port; the back side comprises a first surrounding ridge structure; the profiled interface region comprises an aperture for providing access to the pressure port; and the front side of the profiled interface region comprises a third surrounding ridge structure adhered at least in part in the annular recess by an adhesive to secure the pressure sensor apparatus to the pressure port and to mate sealingly the front side of the profiled interface region against the pressure port. characterized in that the back side further comprises a second surrounding ridge structure.
A process for preparing dicycloplatin of formula, comprising: combining carboplatin with a corresponding proportion of 1,1-cyclobutane dicarboxylic acid and a solvent to form a suspension; separating formed precipitated solids from the suspension; and drying the solids, wherein the solids comprise the dicycloplatin of formula without an XRPD detectable amount of carboplatin present, wherein the molar ratio of the carboplatin and the 1, 1-cyclobutane dicarboxylic acid in the combining step ranges from 1:1.15 to 1:50. combining carboplatin with a corresponding proportion of 1,1-cyclobutane dicarboxylic acid and a solvent to form a suspension; separating formed precipitated solids from the suspension; and drying the solids, wherein the solids comprise the dicycloplatin of formula without an XRPD detectable amount of carboplatin present, wherein the molar ratio of the carboplatin and the 1, 1-cyclobutane dicarboxylic acid in the combining step ranges from 1:1.15 to 1:50.
A fan assembly, comprising: a fan, including: a fan hub located at a fan central axis; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan drive installed in the fan hub opening via an interference fit between the plurality of nodes and an outer surface of the fan drive, thus centering the fan drive in the fan hub opening; the fan assembly being characterised in that, a node of the plurality of nodes includes a pocket to increase a deformability of the node during installation of the fan to the fan drive; wherein the pocket is a localized reduction in axial thickness of the node. a fan, including: a fan hub located at a fan central axis; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan hub located at a fan central axis; and a plurality of fan blades extending outwardly from the fan hub; the fan hub having a fan hub opening at the fan central axis, the fan hub opening at least partially defined by a plurality of nodes extending radially inwardly toward the fan central axis from the fan hub; and a fan drive installed in the fan hub opening via an interference fit between the plurality of nodes and an outer surface of the fan drive, thus centering the fan drive in the fan hub opening; the fan assembly being characterised in that, a node of the plurality of nodes includes a pocket to increase a deformability of the node during installation of the fan to the fan drive; wherein the pocket is a localized reduction in axial thickness of the node.
Barrel for a self-winding timepiece including a drum of axis AA provided with an internal lateral wall having friction surfaces alternating with locking structures (13, 16) forming salient edges (15a, 15b) at the boundary of the friction surfaces and a mainspring forming a winding including an outer coil, which is friction coupled to said internal lateral wall and free to slip against said internal lateral wall in the event of overwinding of the mainspring, wherein said structures form notches including a flank at the inlet thereof that intersects the friction surfaces downstream relative to the direction in which said outer coil slips, forming a rounded salient edge, and wherein said salient edge has a radius of curvature of more than 0.15 mm and said notches include a flank at the outlet thereof inclined so as to frictionally oppose to the sliding movement of the end of the mainspring, said flank intersecting said friction surfaces upstream relative to the direction in which said outer coil slips, forming a salient edge whose radius of curvature is zero or comprised between 0.002 and 0.1 mm.
Copper-ceramic composite comprising - a ceramic substrate containing aluminum oxide, - a coating of copper or a copper alloy present on the ceramic substrate, which coating is applied by a DCB process to the ceramic substrate, wherein the grains of the aluminum oxide each have a maximum diameter d Kmax, a diameter d K,ortho running perpendicular to d K,max, determined on half the length of d K,max, and a shape factor R K (Al 2 O 3) = d K,ortho / d K,max and the aluminum oxide has an average grain shape factor R a (Al 2 O 3), determined as arithmetic mean of the shape factors R K (Al 2 O 3) of the grains of the aluminum oxide, the grains of the copper or of the copper alloy each have a maximum diameter d K,max, a diameter d K,ortho running perpendicular to d K,max, determined on half the length of d K,max, and a shape factor R K (Cu)= d K,ortho / d K,max and the copper or the copper alloy has an average grain shape factor R a (Cu), determined as arithmetic mean of the shape factors R K (Cu) of the grains of the copper or of the copper alloy, where the average grain shape factors of the aluminum oxide and of the copper or of the copper alloy satisfy the following condition: 0.5 ≤ R a Al 2 O 3 / R a Cu ≤ 2.0. - a ceramic substrate containing aluminum oxide, - a coating of copper or a copper alloy present on the ceramic substrate, which coating is applied by a DCB process to the ceramic substrate, the grains of the aluminum oxide each have a maximum diameter d Kmax, a diameter d K,ortho running perpendicular to d K,max, determined on half the length of d K,max, and a shape factor R K (Al 2 O 3) = d K,ortho / d K,max and the aluminum oxide has an average grain shape factor R a (Al 2 O 3), determined as arithmetic mean of the shape factors R K (Al 2 O 3) of the grains of the aluminum oxide, the grains of the copper or of the copper alloy each have a maximum diameter d K,max, a diameter d K,ortho running perpendicular to d K,max, determined on half the length of d K,max, and a shape factor R K (Cu)= d K,ortho / d K,max and the copper or the copper alloy has an average grain shape factor R a (Cu), determined as arithmetic mean of the shape factors R K (Cu) of the grains of the copper or of the copper alloy, where the average grain shape factors of the aluminum oxide and of the copper or of the copper alloy satisfy the following condition: 0.5 ≤ R a Al 2 O 3 / R a Cu ≤ 2.0.
A symmetric quadrupole structured field emission display without spacer, comprising two parallel substrates, the upper substrate and the lower substrate (10 and 20), which are adapted in the size, a number of longitudinal strips of anode electrodes disposed on the underside of the upper substrate side by side, bus electrodes each disposed on the respective anode electrode along the longitudinal centerline thereof, a phosphor layer and an anode dielectric layer disposed on each anode electrode and bus electrode in alternating order along the longitudinal direction, a comb-like dielectric layer disposed on the underside of the upper substrate, the comb-like dielectric layer being composed of lateral connection belts that are arranged in the flanking on the upper substrate and a number of longitudinal work belts that are arranged side by side on one side of the lateral connection belts, the longitudinal work belts being parallel to the anode electrodes and arranged on the upper substrate where not covered by the anode electrodes, longitudinal strip-like gate electrodes (A1, A2) arranged on both longitudinal sides on the underside of each longitudinal work belt, the gate electrodes being interdigital and located on both sides of each anode electrode, with the respective bus electrode as symmetry center, a dielectric layer for gate protection arranged on the gate electrodes (A1, A2) and on the longitudinal work belts that are not covered by the gate electrodes (A1, A2), a number of horizontal lateral strip-like cathodes arranged on the upper side of the lower substrate side by side, a first resistor layer for current limiting, a first dielectric layer for cathode protection, a second resistor layer for current limiting and a second dielectric layer for cathode protection arranged alternatingly in this order on each cathode along the lateral extension thereof, a first electron emission layer arranged on the first resistor layer for current limiting and a second electron emission layer arranged on the second resistor layer for current limiting, a number of longitudinal strip-like auxiliary electrodes arranged side by side and extending perpendicular to the strip-like cathodes, each auxiliary electrode disposed on the top of a respective one of thesecond dielectric layers for cathode protection such that each intersect of the auxiliary electrodes and the cathodes is insulated by the respective second dielectric layer for cathode protection, a dielectric layer for isolation arranged between the upper and lower substrates (10 and 20), the upper and lower side of the dielectric layer for isolation being connected respectively to the dielectric layer for gate protection and the dielectric layer for cathode protection.