mhurhangee/patent-ind-claim-en huggingface dataset:
A digital signage comprising: a display panel ; a housing having the display panel arranged in one surface, the housing comprising a closed inner space ; a cooling unit arranged in a top portion of the housing, the cooling unit comprising a hole configured to suck and exhaust external air; a heat pipe comprising one end positioned in the closed inner space of the housing to be coupled to a back surface of the display and the other end positioned in the cooling unit , with a liquid flowing therein to move heat to the cooling unit , where the liquid is cooled by the external air; and a driving circuit board to control operating of the display panel , wherein the driving circuit board is arranged in the closed inner space of the housing and coupled to a back surface of the heat pipe , and wherein the back surface of the heat pipe is opposite to a surface coupled to the display panel , wherein the heat pipe is a long pipe extending in a vertical direction and penetrating a top portion of the closed inner space extending into the cooling unit . a display panel ; a housing having the display panel arranged in one surface, the housing comprising a closed inner space ; a cooling unit arranged in a top portion of the housing, the cooling unit comprising a hole configured to suck and exhaust external air; a heat pipe comprising one end positioned in the closed inner space of the housing to be coupled to a back surface of the display and the other end positioned in the cooling unit , with a liquid flowing therein to move heat to the cooling unit , where the liquid is cooled by the external air; and a driving circuit board to control operating of the display panel , wherein the driving circuit board is arranged in the closed inner space of the housing and coupled to a back surface of the heat pipe , and wherein the back surface of the heat pipe is opposite to a surface coupled to the display panel , wherein the heat pipe is a long pipe extending in a vertical direction and penetrating a top portion of the closed inner space extending into the cooling unit .
An apparatus, comprising: control circuitry configured to cause a base station configured for machine-type communication, MTC, to: determine a super-frame structure, the super-frame structure comprising a control region in a super-frame according to the super-frame structure, and a number of subframes in a data region of the super-frame, wherein the number of subframes in the data region of the super-frame is set, at least in part, based on a coverage enhancement target of a narrowband deployment; determine configuration information for a user equipment, UE, in communication with the base station ; and generate a configuration for an MTC control format indicator, M-CFI, for the UE to indicate the determined configuration information; and transmit circuitry configured to transmit the M-CFI through a narrowband MTC Physical Control Format Indicator Channel, M-PCFICH, within the control region of the super-frame, wherein the M-PCFICH carries the M-CFI, which is used to indicate information for MTC Physical Downlink Control Channel, M-PDCCH, WEPBEEH and MTC Physical Downlink Shared Channel, M-PDSCH, transmission. determine a super-frame structure, the super-frame structure comprising a control region in a super-frame according to the super-frame structure, and a number of subframes in a data region of the super-frame, wherein the number of subframes in the data region of the super-frame is set, at least in part, based on a coverage enhancement target of a narrowband deployment; determine configuration information for a user equipment, UE, in communication with the base station ; and generate a configuration for an MTC control format indicator, M-CFI, for the UE to indicate the determined configuration information; and transmit circuitry configured to transmit the M-CFI through a narrowband MTC Physical Control Format Indicator Channel, M-PCFICH, within the control region of the super-frame, wherein the M-PCFICH carries the M-CFI, which is used to indicate information for MTC Physical Downlink Control Channel, M-PDCCH, WEPBEEH and MTC Physical Downlink Shared Channel, M-PDSCH, transmission.
Process for manufacturing a packaging body made from a track material comprising paper, whereby the packaging body comprises a depression for receiving a good to be packaged, comprising the steps: - prestressing the track material , - fixing the track material between a binder and a die , - moulding the depression into the track material , and - demoulding the moulded depression from the die , characterised in that the prestressing step is performed in the middle of the side of the clamps on the track material and a pull roll with two rollers , whereby the track material is led between the two rollers . - prestressing the track material , - fixing the track material between a binder and a die , - moulding the depression into the track material , and - demoulding the moulded depression from the die ,
A method for supporting multiple contactless applications using different security keys on a wireless smart device, the method comprising: at a wireless smart device configured to communicate with a wireless smart device reader, the wireless device including a plurality of contactless applications and a contactless application memory for use by the plurality of contactless applications: initializing a portion of the memory such that access to the portion of memory requires the use of a shared secret key known to the plurality of contactless applications; reserving, by one contactless application from among the plurality of contactless applications, the portion of memory for use by one of the plurality of contactless applications by using the shared secret key to write an application-specific key into a sector trailer block of the portion of memory to set access privileges for the portion of memory such that access to the portion of memory requires the use of the application-specific secret key associated with the one application and not known to the other applications; accessing, by the one contactless application, the reserved portion of memory using the application-specific secret key, and using, by the one contactless application, the application-specific secret key to write the shared secret key into a sector trailer block of the portion of memory thereby releasing the reserved portion of memory and setting access privileges for the portion of memory such that access to the portion of memory requires the use of the shared secret key. initializing a portion of the memory such that access to the portion of memory requires the use of a shared secret key known to the plurality of contactless applications; reserving, by one contactless application from among the plurality of contactless applications, the portion of memory for use by one of the plurality of contactless applications by using the shared secret key to write an application-specific key into a sector trailer block of the portion of memory to set access privileges for the portion of memory such that access to the portion of memory requires the use of the application-specific secret key associated with the one application and not known to the other applications; accessing, by the one contactless application, the reserved portion of memory using the application-specific secret key, and using, by the one contactless application, the application-specific secret key to write the shared secret key into a sector trailer block of the portion of memory thereby releasing the reserved portion of memory and setting access privileges for the portion of memory such that access to the portion of memory requires the use of the shared secret key.
An indirect fuel injection internal combustion engine with an air intake distributor for the indirect fuel injection internal combustion engine, comprising a cylinder head wherein tubular intake ducts are hollowed out, which open on one side into an intake chamber surrounded by the intake distributor, and on the opposite side into a combustion chamber delimited by a cylinder, a piston and the lower wall of the cylinder head, said distributor comprising inlet orifices for a de-oiled gas feed ramp , the intake chamber being divided into air passage compartments , each of which is dedicated to a cylinder and comprises an intake device for de-oiled gases capable of controlling the aeraulic seal between two adjacent compartments , the inlet device being able to prevent the passage of gas and air from the corresponding compartment to the de-oiled gas feed ramp , the device allowing the passage of de-oiled gas from the feed ramp to the corresponding air passage compartment , characterized in that the device is housed in a fixing wall of the distributor against the cylinder head , the device comprising elastic gas flow control means , the feed ramp being surrounded by a seal comprising an upper bead extending substantially parallel to the ramp and placed between the ramp and the intake chamber , and a lower bead extending substantially parallel to the ramp and disposed between the ramp and the outside of the distributor, the upper seal bead carrying the resilient gas flow control means .
A method of delivering coolant to a medical device , comprising: transferring a coolant in a liquid state from a coolant reservoir to a subcooler (68;98; 118; 120; 136); operating the subcooler to modify temperature and pressure characteristics of the coolant in the liquid state to change the coolant to a supercritical state; transferring a coolant in a supercritical state from the subcooler (68; 98; 118; 120; 136) to a treatment region of the medical device for non surgical purposes; and dispersing the coolant through a valve or expansion element to change the coolant from the supercritical state into a mixed liquid-gaseous state at the treatment region . transferring a coolant in a liquid state from a coolant reservoir to a subcooler (68;98; 118; 120; 136); operating the subcooler to modify temperature and pressure characteristics of the coolant in the liquid state to change the coolant to a supercritical state; transferring a coolant in a supercritical state from the subcooler (68; 98; 118; 120; 136) to a treatment region of the medical device for non surgical purposes; and dispersing the coolant through a valve or expansion element to change the coolant from the supercritical state into a mixed liquid-gaseous state at the treatment region .
A vacuum coating and plasma treatment system comprising: a plasma assembly arranged to face a substrate , the plasma assembly including: a magnetron target (Ts) having a target surface; a magnetron cathode with a long edge, a short edge and a magnetic pole, said magnetic pole being arranged to form, in use, a sputtering racetrack within the magnetron target (Ts) and an electromagnetic barrier; an anode (As) electrically connected to the magnetron cathode; a magnetron cathode power supply (Ps) connected to the magnetron cathode and to the anode; at least two remote arc discharge electrodes (44; 28); a remote arc discharge power supply connected between the at least two remote arc discharge electrodes (44; 28), and arranged to generate at least one remote arc discharge separate from the magnetron cathode and adjacent to the magnetron target, such that, in use, the remote arc discharge extends along a direction parallel to the long edge of the magnetron cathode, and such that, in use, the remote arc discharge is confined within a remote arc volume adjacent to the magnetron target, the remote arc volume being defined by the surface of the target on one side and the electromagnetic barrier on all other sides; a remote arc discharge cathode hood arranged to extend over the remote arc discharge and across the short edge of the magnetron cathode; and a remote arc discharge anode hood ; the vacuum coating and plasma treatment system further comprising a magnetic system arranged to create magnetic field lines which, in use, extend into and confine a plasma in front of the plasma assembly and the substrate. a magnetron target (Ts) having a target surface; a magnetron cathode with a long edge, a short edge and a magnetic pole, said magnetic pole being arranged to form, in use, a sputtering racetrack within the magnetron target (Ts) and an electromagnetic barrier; an anode (As) electrically connected to the magnetron cathode; a magnetron cathode power supply (Ps) connected to the magnetron cathode and to the anode; at least two remote arc discharge electrodes (44; 28); a remote arc discharge power supply connected between the at least two remote arc discharge electrodes (44; 28), and arranged to generate at least one remote arc discharge separate from the magnetron cathode and adjacent to the magnetron target, such that, in use, the remote arc discharge extends along a direction parallel to the long edge of the magnetron cathode, and such that, in use, the remote arc discharge is confined within a remote arc volume adjacent to the magnetron target, the remote arc volume being defined by the surface of the target on one side and the electromagnetic barrier on all other sides; a remote arc discharge cathode hood arranged to extend over the remote arc discharge and across the short edge of the magnetron cathode; and a remote arc discharge anode hood ; the vacuum coating and plasma treatment system further comprising a magnetic system arranged to create magnetic field lines which, in use, extend into and confine a plasma in front of the plasma assembly and the substrate.
A prosthetic device for replacing a damaged meniscus, the prosthetic device comprising: a central portion having an upper surface for engagement with a portion of a femur and an opposing lower surface for engagement with a portion of a tibia, the central portion comprising a resilient polymeric material; and an outer portion surrounding the central portion and having an increased thickness relative to the central portion , the outer portion comprising the resilient polymeric material and tensioned with at least one reinforcing fiber embedded in the resilient polymeric material, wherein the outer portion is sized and shaped such that a compression force imparted on the prosthetic device by the femur and the tibia displaces the outer portion radially outward from the central portion , and wherein the outer portion comprises a first section having a generally semi-ellipsoidal profile similar to a natural meniscus and a second section connecting ends of the first section , the second section sized and shaped to engage a femur notch to secure the prosthetic device within a knee joint without penetrating bone. a central portion having an upper surface for engagement with a portion of a femur and an opposing lower surface for engagement with a portion of a tibia, the central portion comprising a resilient polymeric material; and an outer portion surrounding the central portion and having an increased thickness relative to the central portion , the outer portion comprising the resilient polymeric material and tensioned with at least one reinforcing fiber embedded in the resilient polymeric material, wherein the outer portion is sized and shaped such that a compression force imparted on the prosthetic device by the femur and the tibia displaces the outer portion radially outward from the central portion , and wherein the outer portion comprises a first section having a generally semi-ellipsoidal profile similar to a natural meniscus and a second section connecting ends of the first section , the second section sized and shaped to engage a femur notch to secure the prosthetic device within a knee joint without penetrating bone.
An inspection apparatus comprising: an acquisition part configured to acquire first coordinate information indicating a position of an inspection object on a stage and a plurality of pieces of second coordinate information indicating positions of a plurality of temperature sensors (220_1 to 220_4) on the stage when performing an inspection of the inspection object; a calculation part configured to calculate a Mahalanobis distance between a position specified by an average vector of the first coordinate information and the positions of the plurality of temperature sensors (220_1 to 220_4); a selection part configured to select at least one temperature sensor including a temperature sensor having a smallest Mahalanobis distance, among the plurality of temperature sensors (220_1 to 220_4); and a controller configured to control a temperature of the inspection object using temperature data measured by the selected at least one temperature sensor. an acquisition part configured to acquire first coordinate information indicating a position of an inspection object on a stage and a plurality of pieces of second coordinate information indicating positions of a plurality of temperature sensors (220_1 to 220_4) on the stage when performing an inspection of the inspection object; a calculation part configured to calculate a Mahalanobis distance between a position specified by an average vector of the first coordinate information and the positions of the plurality of temperature sensors (220_1 to 220_4); a selection part configured to select at least one temperature sensor including a temperature sensor having a smallest Mahalanobis distance, among the plurality of temperature sensors (220_1 to 220_4); and a controller configured to control a temperature of the inspection object using temperature data measured by the selected at least one temperature sensor.
A negative-type planographic printing plate precursor comprising: an image-recording layer on an aluminum support, wherein the image-recording layer includes a polymer particle 1 having a constitutional unit made of a monomer having a solubility parameter of 23 MPa 1/2 or more, a thermoplastic polymer particle 2, and an infrared absorber, and at least any of fusion or aggregation of the thermoplastic polymer particle 2 is caused by heat during exposure, whereby an image can be formed, characterized in that a polymer in the particle 1 has at least one structure selected from the group consisting of a urethane bond, a sulfonamide group, an imide group, an amino group, and a sulfonimide group. an image-recording layer on an aluminum support, wherein the image-recording layer includes a polymer particle 1 having a constitutional unit made of a monomer having a solubility parameter of 23 MPa 1/2 or more, a thermoplastic polymer particle 2, and an infrared absorber, and at least any of fusion or aggregation of the thermoplastic polymer particle 2 is caused by heat during exposure, whereby an image can be formed, characterized in that a polymer in the particle 1 has at least one structure selected from the group consisting of a urethane bond, a sulfonamide group, an imide group, an amino group, and a sulfonimide group.
A mud pump, comprising: a housing ; a crankshaft rotatably supported in the housing ; the crankshaft having a plurality of hubs , a first bull gear , and a second bull gear disposed thereon, the first bull gear and the second bull gear being positioned at opposing ends of the crankshaft a pinion shaft that drives the crankshaft , the pinion shaft rotatably supported in the housing and having a first pinion gear engaging the first bull gear on the crankshaft and a second pinion gear engaging the second bull gear on the crankshaft ; a plurality of connecting rods , each of the connecting rods disposed on one of the hubs of the crankshaft ; and a plurality of pistons that pump mud, each of the connecting rods coupled to one of the plurality of pistons ; characterized in that the plurality of hubs includes four hubs disposed on the crankshaft and connected to drive four pistons of the plurality of pistons via connecting rods of the plurality of connecting rods, said four hubs being positioned along the crankshaft between the first bull gear and the second bull gear. a housing ; a crankshaft rotatably supported in the housing ; the crankshaft having a plurality of hubs , a first bull gear , and a second bull gear disposed thereon, the first bull gear and the second bull gear being positioned at opposing ends of the crankshaft a pinion shaft that drives the crankshaft , the pinion shaft rotatably supported in the housing and having a first pinion gear engaging the first bull gear on the crankshaft and a second pinion gear engaging the second bull gear on the crankshaft ; a plurality of connecting rods , each of the connecting rods disposed on one of the hubs of the crankshaft ; and a plurality of pistons that pump mud, each of the connecting rods coupled to one of the plurality of pistons ; characterized in that the plurality of hubs includes four hubs disposed on the crankshaft and connected to drive four pistons of the plurality of pistons via connecting rods of the plurality of connecting rods, said four hubs being positioned along the crankshaft between the first bull gear and the second bull gear.
A surgical microscope device , comprising: a microscope unit that is configured to image an observation target electronically, and outputs a picture signal, the microscope unit comprising for this purpose an imaging unit stored inside a first rotation axis unit and a barrel unit provided with an objective lens on a bottom end; a support unit that supports the microscope unit, and is configured as a balance arm; and an auxiliary observation device that is attachable to the microscope unit by a surgeon, and is configured, when attached to the microscope unit, to enable direct optical observation by the surgeon of an observation range provided by the microscope unit, the auxiliary observation device comprising a lens barrel unit , an attachment mechanism unit for mounting the auxiliary observation device to a top face of a housing of the first rotation axis unit, a connecting unit that connects the lens barrel unit and the attachment mechanism unit and a securing member for securing the auxiliary observation device to the first rotation axis unit , wherein, when the auxiliary observation device is attached to the microscope unit , an eyepiece of the lens barrel unit is positioned at a higher position than the microscope unit and the first rotation axis unit . a support unit that supports the microscope unit, and is configured as a balance arm; and an auxiliary observation device that is attachable to the microscope unit by a surgeon, and is configured, when attached to the microscope unit, to enable direct optical observation by the surgeon of an observation range provided by the microscope unit, the auxiliary observation device comprising a lens barrel unit , an attachment mechanism unit for mounting the auxiliary observation device to a top face of a housing of the first rotation axis unit, a connecting unit that connects the lens barrel unit and the attachment mechanism unit and a securing member for securing the auxiliary observation device to the first rotation axis unit , wherein, when the auxiliary observation device is attached to the microscope unit , an eyepiece of the lens barrel unit is positioned at a higher position than the microscope unit and the first rotation axis unit .