mhurhangee/patent-ind-claim-en huggingface dataset:
A watermarking device comprising: a wire-mesh element including an embossed wire area having a wire-mesh relief structure; and an electrotype element including an embossed electrotype area having an electrotype relief structure, and including a perforation pattern; wherein the electrotype element is coupled to the wire-mesh element such that the wire-mesh relief structure and the electrotype relief structure are at least partially overlapped to form an overlapping area bound by the area of overlap between the electrotype relief structure and the wire-mesh relief structure, characterized in that the electrotype element has more surface area than the wire-mesh element, permitting more information from a die to be transferred to the wire-mesh electrotype couple. a wire-mesh element including an embossed wire area having a wire-mesh relief structure; and an electrotype element including an embossed electrotype area having an electrotype relief structure, and including a perforation pattern; wherein the electrotype element is coupled to the wire-mesh element such that the wire-mesh relief structure and the electrotype relief structure are at least partially overlapped to form an overlapping area bound by the area of overlap between the electrotype relief structure and the wire-mesh relief structure, characterized in that the electrotype element has more surface area than the wire-mesh element, permitting more information from a die to be transferred to the wire-mesh electrotype couple.
Method for managing an electrical energy storage element of metal-ion type which comprises at least one cell (CELL), characterized in that , in a constant voltage charging cycle, the method comprises the following steps: - measuring the temperature of the cell to obtain several temperature values, - determining a maximum temperature value (Tmax_i) from among the temperature values obtained, - in case of detection of a heating above a heating threshold or a threshold of said maximum temperature value being exceeded, correcting a high charging voltage threshold value of the cell and a low end-of-discharge voltage threshold value of the cell, - determining a first correction value (A i ) to be applied to the high voltage threshold value and a second correction value (B i ) to be applied to the low voltage value, the first correction value being determined from the sum of a correction pitch (α i ) and of a correction value stored in the preceding charging cycle. - measuring the temperature of the cell to obtain several temperature values, - determining a maximum temperature value (Tmax_i) from among the temperature values obtained, - in case of detection of a heating above a heating threshold or a threshold of said maximum temperature value being exceeded, correcting a high charging voltage threshold value of the cell and a low end-of-discharge voltage threshold value of the cell, - determining a first correction value (A i ) to be applied to the high voltage threshold value and a second correction value (B i ) to be applied to the low voltage value, the first correction value being determined from the sum of a correction pitch (α i ) and of a correction value stored in the preceding charging cycle.
Fluid meter comprising a counter comprising a counting member and a cap , this cap incorporating a covering element connected to the cap by at least two breakable tenons and a break line designed for detecting fraud, wherein said covering element covers a cavity for receiving a remote-meter-reading module , said counter comprising a wall delimiting said receiving cavity, and wherein said break line is arranged in the wall of the cap and arranged in line with said receiving cavity such that the covering element is able to be separated from the cap after intentional breakage of said break line and of said breakable tenons.
A medicament container holder for a medicament delivery device , comprising: a C-shaped tubular body having a longitudinal gap extending along the entire axial extension of the C-shaped tubular body , which C-shaped tubular body is configured to be placed around a medicament container , wherein the C-shaped tubular body has a first axial end provided with an end flange extending radially inwards and configured to bear against a neck of a medicament container , and characterized in that the first axial end is provided with a lip extending from the end flange towards a needle end of a medicament container inside the medicament container holder . a C-shaped tubular body having a longitudinal gap extending along the entire axial extension of the C-shaped tubular body , which C-shaped tubular body is configured to be placed around a medicament container , wherein the C-shaped tubular body has a first axial end provided with an end flange extending radially inwards and configured to bear against a neck of a medicament container , and characterized in that the first axial end is provided with a lip extending from the end flange towards a needle end of a medicament container inside the medicament container holder .
An assembly for measurements of one or more optical parameters of a medium, the assembly comprising: a light sheet generator configured to provide a polychromatic light sheet comprising a light spectrum extending in a first spatial dimension , wherein the polychromatic light sheet has a propagation path in a second spatial dimension , wherein the light sheet generator comprises a light source configured to provide white light, a dispersive element configured to spread the white light in the first spatial dimension to provide the light spectrum, and an optical slit extending in the first spatial dimension configured to provide the polychromatic light sheet by limitation of the spread white light; a light intensity modulator configured to provide an intensity modulated polychromatic light sheet by applying - to the polychromatic light sheet - an intensity modulation having a periodical, or substantially periodical, pattern in the first spatial dimension; a holder for a sample of the medium, configured to enable the intensity modulated polychromatic light sheet to illuminate the sample; and an optical sensor configured to record intensity of light exiting the sample over the light spectrum for provision of the one or more optical parameters. a light sheet generator configured to provide a polychromatic light sheet comprising a light spectrum extending in a first spatial dimension , wherein the polychromatic light sheet has a propagation path in a second spatial dimension , wherein the light sheet generator comprises a light source configured to provide white light, a dispersive element configured to spread the white light in the first spatial dimension to provide the light spectrum, and an optical slit extending in the first spatial dimension configured to provide the polychromatic light sheet by limitation of the spread white light; a light intensity modulator configured to provide an intensity modulated polychromatic light sheet by applying - to the polychromatic light sheet - an intensity modulation having a periodical, or substantially periodical, pattern in the first spatial dimension; a holder for a sample of the medium, configured to enable the intensity modulated polychromatic light sheet to illuminate the sample; and an optical sensor configured to record intensity of light exiting the sample over the light spectrum for provision of the one or more optical parameters.
An examining device for processing and analyzing an image of a bio sample for digital pathology, comprising - an interface unit , - an image analyzing unit , - a display unit , and wherein the interface unit is configured to provide a microscopic image of a bio sample, wherein the image analyzing unit is configured to indicate a region of interest in the image as reference region , to extract a nuclei feature, a nuclei type, a nuclei density, or a nuclei shape in a cell of the reference region from the image and to analyze the image for alternative regions with a similar characteristic to the characteristic extracted from the reference region, wherein the display unit is configured to display the result of the analysis for alternative regions with a similar characteristic, and wherein the bio sample is a tissue sample. - an interface unit , - an image analyzing unit , - a display unit , and
Bragg grating temperature sensor comprising an optical fiber including a core , an optical cladding surrounding the core and a Bragg grating incorporated in the core and extending along a segment of the optical fibre called sensitive segment, the temperature sensor being characterised in that the core includes a core gap extending along a segment of the optical fibre called core gap segment, the core gap segment being located in the vicinity of the sensitive segment, and in that the optical cladding includes a cladding gap extending along a segment of the optical fibre called cladding gap segment, the cladding gap segment including the sensitive segment.
A battery pack mounted on a vehicle, the battery pack comprising: at least one cell stack ; a first duct and a second duct configured to feed cooling air toward the at least one cell stack ; and a housing case configured to house the at least one cell stack , the first duct and the second duct , the housing case having a ceiling portion having a respective peripheral wall portion extending from a respective peripheral edge of the ceiling portion and a bottom portion facing the ceiling portion and having a respective peripheral wall portion extending from a respective peripheral edge of the bottom portion , the first duct and the second duct extending in a first direction and being spaced apart from each other in a second direction, the first direction being parallel to a front-back direction of the vehicle in a mounted state in which the battery pack is mounted on the vehicle, the second direction being parallel to a width direction of the vehicle in the mounted state, the first duct being arranged on an outer side of the at least one cell stack on one side in the second direction, and between the peripheral wall portions and the at least one cell stack , a second space (S2) being provided between the first duct and the at least one cell stack , the second duct being arranged on an outer side of the at least one cell stack on the other side in the second direction, and between the peripheral wall portions and the at least one cell stack , a first space (S1) being provided between the second duct and the at least one cell stack . at least one cell stack ; a first duct and a second duct configured to feed cooling air toward the at least one cell stack ; and a housing case configured to house the at least one cell stack , the first duct and the second duct , the housing case having a ceiling portion having a respective peripheral wall portion extending from a respective peripheral edge of the ceiling portion and a bottom portion facing the ceiling portion and having a respective peripheral wall portion extending from a respective peripheral edge of the bottom portion , the first duct and the second duct extending in a first direction and being spaced apart from each other in a second direction, the first direction being parallel to a front-back direction of the vehicle in a mounted state in which the battery pack is mounted on the vehicle, the second direction being parallel to a width direction of the vehicle in the mounted state, the first duct being arranged on an outer side of the at least one cell stack on one side in the second direction, and between the peripheral wall portions and the at least one cell stack , a second space (S2) being provided between the first duct and the at least one cell stack , the second duct being arranged on an outer side of the at least one cell stack on the other side in the second direction, and between the peripheral wall portions and the at least one cell stack , a first space (S1) being provided between the second duct and the at least one cell stack .
A fuel cell system, comprising: a driving unit to run a mobile body by supplying an electric power; a fuel cell stack supplying an electric power for running to the driving unit ; a fuel supply unit supplying fuel necessary for electric power generation of the fuel cell stack ; and a controller controlling a power-plant comprising the fuel cell stack and the fuel supply unit , characterized in that , the controller comprises: a stack output-response request computing unit (S110) to compute a stack output-response request, that is an electric power response requested for the fuel cell stack, an entire idle-stop a stack voltage setup unit during idle-stop (S120) to set up a lower limit of a stack setup-voltage during idle-stop that is set up as a stack voltage during execution of idle-stop so as to be higher as the stack output-response request is larger and so as to be lower as the stack-out-response request is smaller; and an operation unit of recovering a stack voltage during idle-stop (S130) to execute a recovery operation in which fuel gas or the air is supplied when an actual voltage of the fuel cell stack becomes lower than the lower limit of the stack setup-voltage during idle-stop. a driving unit to run a mobile body by supplying an electric power; a fuel cell stack supplying an electric power for running to the driving unit ; a fuel supply unit supplying fuel necessary for electric power generation of the fuel cell stack ; and a controller controlling a power-plant comprising the fuel cell stack and the fuel supply unit , characterized in that , the controller comprises: a stack output-response request computing unit (S110) to compute a stack output-response request, that is an electric power response requested for the fuel cell stack, an entire idle-stop a stack voltage setup unit during idle-stop (S120) to set up a lower limit of a stack setup-voltage during idle-stop that is set up as a stack voltage during execution of idle-stop so as to be higher as the stack output-response request is larger and so as to be lower as the stack-out-response request is smaller; and an operation unit of recovering a stack voltage during idle-stop (S130) to execute a recovery operation in which fuel gas or the air is supplied when an actual voltage of the fuel cell stack becomes lower than the lower limit of the stack setup-voltage during idle-stop. a stack output-response request computing unit (S110) to compute a stack output-response request, that is an electric power response requested for the fuel cell stack, an entire idle-stop a stack voltage setup unit during idle-stop (S120) to set up a lower limit of a stack setup-voltage during idle-stop that is set up as a stack voltage during execution of idle-stop so as to be higher as the stack output-response request is larger and so as to be lower as the stack-out-response request is smaller; and an operation unit of recovering a stack voltage during idle-stop (S130) to execute a recovery operation in which fuel gas or the air is supplied when an actual voltage of the fuel cell stack becomes lower than the lower limit of the stack setup-voltage during idle-stop.
A display device comprising: a light-emitting element at a display area (DA); a driving element electrically connected to the light-emitting element ; an encapsulation layer covering the light-emitting element ; a touch sensor on the encapsulation layer ; a connection pad (CP1, CP2) at a bonding area (PA2), the connection pad (CP1, CP2) comprising a lower conductive layer (CP1a, CP2a), an intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) on the lower conductive layer (CP1a, CP2a), and an upper conductive layer (CP1d, CP2d) on the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e); a cladding layer covering a side surface of the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) while exposing an upper surface of the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) and comprising an organic material; a passivation layer covering an upper surface of the cladding layer , covering and contacting the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) and comprising an inorganic material, a portion of the passivation layer being located under the upper conductive layer (CP1d, CP2d); and a driving circuit (DC) attached to the connection pad (CP1, CP2). a light-emitting element at a display area (DA); a driving element electrically connected to the light-emitting element ; an encapsulation layer covering the light-emitting element ; a touch sensor on the encapsulation layer ; a connection pad (CP1, CP2) at a bonding area (PA2), the connection pad (CP1, CP2) comprising a lower conductive layer (CP1a, CP2a), an intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) on the lower conductive layer (CP1a, CP2a), and an upper conductive layer (CP1d, CP2d) on the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e); a cladding layer covering a side surface of the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) while exposing an upper surface of the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) and comprising an organic material; a passivation layer covering an upper surface of the cladding layer , covering and contacting the intermediate conductive layer (CP1b, CP2b, CP1c, CP2c, CP1e, CP2e) and comprising an inorganic material, a portion of the passivation layer being located under the upper conductive layer (CP1d, CP2d); and a driving circuit (DC) attached to the connection pad (CP1, CP2).
A hydraulic device comprising a housing , a shaft which is mounted in the housing and rotatable about a first axis of rotation , wherein the shaft has a flange extending perpendicularly to the first axis , a plurality of pistons which are fixed to the flange at equiangular distance about the first axis of rotation , a plurality of cylindrical sleeves cooperating with the pistons to form respective compression chambers of variable volume, wherein the sleeves are rotatable about a second axis of rotation which intersects the first axis of rotation by an acute angle such that upon rotating the shaft the volumes of the compression chambers change, wherein each piston has a piston head including a ball-shaped circumferential outer side, characterized in that each of the pistons has a modular structure comprising a piston head member which forms said piston head, a piston pin which is fixed to the flange and to which the piston head member is mounted, and a spacer which is located at the outer side of the piston pin and sandwiched between the piston head member and the flange .
A system comprising a motor and a motor drive device capable of switching a connection configuration of stator windings of the motor , wherein the motor drive device comprises: three relays each including a first contact , a second contact , a contact plate , and a coil for actuating the contact plate , wherein the contact plate has one terminal coupled to a stator winding of one phase among the stator windings and the contact plate has another terminal to be connected to the first contact or to the second contact ; and characterized by a current detector (61-63, 64-66) configured to detect current flowing through the first contact or the second contact of each of the three relays ; a control unit configured to determine whether all the three relays have a same connection state on a basis of a value of current detected by the current detector (61-63, 64-66) and control the three relays to cause all the three relays to have a same connection state by stopping supplying power to the coil in a case in which not all the three relays have a same connection state with respect to a connection between the another terminal of the contact plate and the first contact and the second contact . three relays each including a first contact , a second contact , a contact plate , and a coil for actuating the contact plate , wherein the contact plate has one terminal coupled to a stator winding of one phase among the stator windings and the contact plate has another terminal to be connected to the first contact or to the second contact ; and characterized by a current detector (61-63, 64-66) configured to detect current flowing through the first contact or the second contact of each of the three relays ; a control unit configured to determine whether all the three relays have a same connection state on a basis of a value of current detected by the current detector (61-63, 64-66) and control the three relays to cause all the three relays to have a same connection state by stopping supplying power to the coil in a case in which not all the three relays have a same connection state with respect to a connection between the another terminal of the contact plate and the first contact and the second contact .
A computer implemented method for accelerating a data extraction from a source system to a target system , comprising: receiving, by at least one processor, a data change for the data extraction from a producer job at the source system , the source system being communicatively coupled to a first persistent storage ; storing, by the at least one processor, the data change in a staging area of a second persistent storage together with a respective sequence identifier , wherein the staging area corresponds to the data extraction; transmitting, by the at least one processor, a response to the producer job that the storing the data change succeeded causing the producer job committing the data change, wherein in response to the committing the data change by the producer job, the source system releases an associated lock on the first persistent storage ; receiving, by the at least one processor, a request for a next package of data changes in the staging area from a consumer job at the target system ; generating, by the at least one processor, the next package from the staging area ; transmitting, by the at least one processor, the next package to the consumer job; receiving, by the at least one processor, a commit notification for the next package from the consumer job in response to the transmitting the next package; and removing, by the at least one processor, the data changes in the next package from the staging area in response to receiving the commit notification for the next package. receiving, by at least one processor, a data change for the data extraction from a producer job at the source system , the source system being communicatively coupled to a first persistent storage ; storing, by the at least one processor, the data change in a staging area of a second persistent storage together with a respective sequence identifier , wherein the staging area corresponds to the data extraction; transmitting, by the at least one processor, a response to the producer job that the storing the data change succeeded causing the producer job committing the data change, wherein in response to the committing the data change by the producer job, the source system releases an associated lock on the first persistent storage ; receiving, by the at least one processor, a request for a next package of data changes in the staging area from a consumer job at the target system ; generating, by the at least one processor, the next package from the staging area ; transmitting, by the at least one processor, the next package to the consumer job; receiving, by the at least one processor, a commit notification for the next package from the consumer job in response to the transmitting the next package; and removing, by the at least one processor, the data changes in the next package from the staging area in response to receiving the commit notification for the next package.