mhurhangee/ep-ind-claims huggingface dataset:
A head lifting/lowering device comprising: a lifting/lowering mechanism that moves a liquid ejecting head, which ejects a liquid, in a first direction in which the liquid ejecting head is lifted/lowered; a frame that supports the lifting/lowering mechanism; and an adjusting member, characterised in that the adjusting member moves the lifting/lowering mechanism relative to the frame in a second direction different from the first direction. a lifting/lowering mechanism that moves a liquid ejecting head, which ejects a liquid, in a first direction in which the liquid ejecting head is lifted/lowered; a frame that supports the lifting/lowering mechanism; and an adjusting member, characterised in that the adjusting member moves the lifting/lowering mechanism relative to the frame in a second direction different from the first direction.
Molecular sensing system including: - a sensing device comprising at least one support layer, and an active layer of a semi-conducting material mounted on said support layer and having at least one nano-pore configured for translocation of a molecular analyte therethrough; - an electrically conducting liquid in contact with the active layer in a region around said nano-pore; and - a signal processing circuit comprising an ionic current circuit configured to generate an ionic current ( Ii) in the electrically conducting liquid influenced by the translocation of the molecular analyte through the nano-pore, wherein said conducting liquid comprises a first conducting liquid on a first side of the active layer and a second conducting liquid on a second side of the active layer, the first conducting liquid having a viscosity greater than a viscosity of the second conducting liquid, wherein the first conducting liquid is selected from a group consisting of an essentially pure room temperature ionic liquid (RTIL), a room temperature ionic liquid (RTIL) mixed with at least one organic solvent, a water-miscible room temperature ionic liquid (RTIL) mixed with water whereby the water content is less than 50 wt%, wherein at room temperature is from about 100 cP to about 500 cP and the second conducting liquid is an aqueous liquid comprising an electrolyte. - a sensing device comprising at least one support layer, and an active layer of a semi-conducting material mounted on said support layer and having at least one nano-pore configured for translocation of a molecular analyte therethrough; - an electrically conducting liquid in contact with the active layer in a region around said nano-pore; and - a signal processing circuit comprising an ionic current circuit configured to generate an ionic current ( Ii) in the electrically conducting liquid influenced by the translocation of the molecular analyte through the nano-pore,
A sheet manufacturing method comprising: a mixing step of mixing fiber and resin powder in air, wherein the resin powder contains a BPA-free polyester resin; and a sheet forming step of forming a sheet by laying and heating the mixture mixed in the mixing step; the grindability index of the resin contained in the resin powder being 0.8 or less, wherein the grindability index is measured as described in paragraph of the foregoing description. a mixing step of mixing fiber and resin powder in air, wherein the resin powder contains a BPA-free polyester resin; and a sheet forming step of forming a sheet by laying and heating the mixture mixed in the mixing step; the grindability index of the resin contained in the resin powder being 0.8 or less, wherein the grindability index is measured as described in paragraph of the foregoing description.
Heat exchanger, in particular for use in a distillation plant, comprising an installation frame (6, 8) and a base unit in the form of a stack of a plurality of metal sheets, wherein, in order to form fluid ducts, the metal sheets of the base unit have an embossing, wherein at least one fluid duct for conducting a fluid is formed between at least two metal sheets, wherein the base unit is exchangeably arranged between a connecting portion and a counter-portion of the installation frame (6, 8), characterized in that the fluid ducts of the base unit and connections (10, 11, 12, 13, 14, 15) of the connection unit and/or connections between the connection unit and the base unit are mechanically encoded by an individual shaping and/or are electronically encoded by an electronic safety device in the form of an RFID transponder or in the form of a sensor.
An angle of rotation sensor comprising a rotatable first code disk; at least one first image sensor; and at least one optics which images an optical code of the code disk onto the first image sensor, wherein at least one second rotating code disk is provided which is directly or indirectly rotatably connected to the first code disk with a transmission ratio; wherein an optical code of the second code disk is imaged onto a second image sensor by means of a second optics; and wherein a light source is arranged in a fixed position and reflectively illuminates the code disks (2, 4, 6), characterized in that the optics and the second optics are each imaging optics; in that the image sensors (8, 10, 12) are formed by a single image sensor, whereby the common image sensor is provided for all code disks (2, 4, 6); and in that a diaphragm is arranged in front of the image sensor.
Cable gland with at least one contact element for contacting at least one long moulded part, the contact element comprising at least a plurality of first windings and a plurality of second windings, which are geometrically different from the first windings, and a through-opening for a passage of a long moulded part, wherein a first diameter d1 of the through opening is defined by the first windings and a second diameter d2 of the through-opening is defined by the second windings and wherein the first diameter d1 and the second diameter d2 are different.
An optical device comprising a printed circuit board comprising a rigid main part and comprising at least one flexible part arranged on the circumference of the rigid main part, the rigid main part including an image-capturing circuit; a lens holder comprising at least one optical lens, the lens holder comprising a wall forming a cavity extending along the optical axis of the device from its top end to its bottom end, the bottom end being mounted on the rigid main part of the printed circuit board such as to align, along the optical axis of the device, the electronic image-capturing circuit and the optical lens; and at least one heating element is arranged on the flexible part of the printed circuit board, the flexible part of the printed circuit board being arranged directly bearing against the wall of the lens holder, characterized in that the top end of the wall of the lens holder comprises a border oriented toward the outside of the wall of the lens holder forming a flat bearing surface, the flexible part of the printed circuit board being arranged bearing solely against the flat bearing surface of the wall. a printed circuit board comprising a rigid main part and comprising at least one flexible part arranged on the circumference of the rigid main part, the rigid main part including an image-capturing circuit; a lens holder comprising at least one optical lens, the lens holder comprising a wall forming a cavity extending along the optical axis of the device from its top end to its bottom end, the bottom end being mounted on the rigid main part of the printed circuit board such as to align, along the optical axis of the device, the electronic image-capturing circuit and the optical lens; and at least one heating element is arranged on the flexible part of the printed circuit board, the flexible part of the printed circuit board being arranged directly bearing against the wall of the lens holder, characterized in that the top end of the wall of the lens holder comprises a border oriented toward the outside of the wall of the lens holder forming a flat bearing surface, the flexible part of the printed circuit board being arranged bearing solely against the flat bearing surface of the wall.
A method for implementing a smart contract based on a blockchain, applied to a blockchain node, and comprising: creating (110, 210) a resident process for a resident smart contract and creating a virtual machine by the resident process in response to achieving an enable condition of the resident smart contract; loading (120, 220) codes of the resident smart contract into a memory through the virtual machine; receiving (130, 240) a data access request generated by a normal smart contract within a block generation cycle through an across-contract calling interface of the virtual machine; and executing (140, 250) the resident smart contract through the virtual machine to process the data access request and returning a data access result to the normal smart contract; wherein a life cycle of a process of the normal smart contract in the memory is one block generation cycle, and a life cycle of the resident process of the resident smart contract in the memory is greater than one block generation cycle; the method being characterised in that the method further comprises: in response to achieving a disable condition of the resident smart contract, solidifying data stored by the resident smart contract in the memory, writing the data into a disk, and killing a process allocated to the virtual machine and clearing a memory space allocated to the virtual machine of the resident smart contract. creating (110, 210) a resident process for a resident smart contract and creating a virtual machine by the resident process in response to achieving an enable condition of the resident smart contract; loading (120, 220) codes of the resident smart contract into a memory through the virtual machine; receiving (130, 240) a data access request generated by a normal smart contract within a block generation cycle through an across-contract calling interface of the virtual machine; and executing (140, 250) the resident smart contract through the virtual machine to process the data access request and returning a data access result to the normal smart contract; wherein a life cycle of a process of the normal smart contract in the memory is one block generation cycle, and a life cycle of the resident process of the resident smart contract in the memory is greater than one block generation cycle; the method being characterised in that the method further comprises: in response to achieving a disable condition of the resident smart contract, solidifying data stored by the resident smart contract in the memory, writing the data into a disk, and killing a process allocated to the virtual machine and clearing a memory space allocated to the virtual machine of the resident smart contract.
A cooling device comprising: a housing part having a first hole formed at one side thereof and a second hole formed at the other side thereof; a heat exchange part accommodated in an internal space of the housing part and having one side communicating with the first hole and the other side communicating with the second hole; a thermoelectric element part provided above the heat exchange part; and a radiational cooling part provided above the thermoelectric element part and at least partially exposed to the outside, wherein an upper surface of the heat exchange part is in close contact with a lower surface of the thermoelectric element part, wherein the heat exchange part comprises: recessed regions each having a recessed shape; and protruding regions each having a protruding shape, wherein the heat exchange part further comprises connection regions each configured to connect a respective recessed region and a respective protruding region, characterised in that the recessed regions and the protruding regions are disposed alternately in a direction from the first hole toward the second hole, the connection regions have flow path holes through which a fluid passes, and the flow path holes, which are provided, respectively, in the two connection regions facing each other with a respective recessed region or a respective protruding region interposed therebetween among the plurality of the connection regions, are different in height in a vertical direction from each other. a housing part having a first hole formed at one side thereof and a second hole formed at the other side thereof; a heat exchange part accommodated in an internal space of the housing part and having one side communicating with the first hole and the other side communicating with the second hole; a thermoelectric element part provided above the heat exchange part; and a radiational cooling part provided above the thermoelectric element part and at least partially exposed to the outside, wherein an upper surface of the heat exchange part is in close contact with a lower surface of the thermoelectric element part, wherein the heat exchange part comprises: recessed regions each having a recessed shape; and protruding regions each having a protruding shape, recessed regions each having a recessed shape; and protruding regions each having a protruding shape, wherein the heat exchange part further comprises connection regions each configured to connect a respective recessed region and a respective protruding region, characterised in that the recessed regions and the protruding regions are disposed alternately in a direction from the first hole toward the second hole, the connection regions have flow path holes through which a fluid passes, and the flow path holes, which are provided, respectively, in the two connection regions facing each other with a respective recessed region or a respective protruding region interposed therebetween among the plurality of the connection regions, are different in height in a vertical direction from each other.
Thermal insulation for a building wall in the basement area of a house, having a prefabricated insulation which can be arranged on a building wall, wherein the insulation has attachment points (4.1) to which a light shaft can be attached, wherein the insulation comprises an insulating board (4.3) and a lining (4.2), characterized in that the lining (4.2) is a polyurea coating.
A scroll compressor comprising: a fixed scroll having a fixed wrap; and an orbiting scroll having an orbiting wrap engaged with the fixed wrap for forming compression chambers, the orbiting scroll being orbitable with respect to the fixed scroll, characterised in that each of the fixed wrap and the orbiting wrap is formed with an arcuate section (42a; 52a) from a suction end (P411, P421; P511, P521) to an arbitrary point (P412, P422; P512, P522) in a direction toward a discharge end (0; 0'), and a logarithmic spiral section (42b; 52b) from another arbitrary point (P413, P423; P513, P523) to the discharge end (0; 0'). a fixed scroll having a fixed wrap; and an orbiting scroll having an orbiting wrap engaged with the fixed wrap for forming compression chambers, the orbiting scroll being orbitable with respect to the fixed scroll, characterised in that each of the fixed wrap and the orbiting wrap is formed with an arcuate section (42a; 52a) from a suction end (P411, P421; P511, P521) to an arbitrary point (P412, P422; P512, P522) in a direction toward a discharge end (0; 0'), and a logarithmic spiral section (42b; 52b) from another arbitrary point (P413, P423; P513, P523) to the discharge end (0; 0').
A method at a network device, the method comprising: receiving a request for content, an electronic advertisement associated with the content; and characterized by: determining a status of a device that transmitted the request for the content, the status comprising roaming status and/or access type of the device; inserting status data indicative of the determined status in the request for content; and forwarding the request for content including the status data from the network device to a provider server (140, 160), wherein the electronic advertisement or receipt of the electronic advertisement is altered or filtered based on the status data. receiving a request for content, an electronic advertisement associated with the content; and characterized by: determining a status of a device that transmitted the request for the content, the status comprising roaming status and/or access type of the device; inserting status data indicative of the determined status in the request for content; and forwarding the request for content including the status data from the network device to a provider server (140, 160), wherein the electronic advertisement or receipt of the electronic advertisement is altered or filtered based on the status data. determining a status of a device that transmitted the request for the content, the status comprising roaming status and/or access type of the device; inserting status data indicative of the determined status in the request for content; and forwarding the request for content including the status data from the network device to a provider server (140, 160), wherein the electronic advertisement or receipt of the electronic advertisement is altered or filtered based on the status data.
A computer-implemented method of utilizing an authentication scheme for a single sign-on between servers, comprising: receiving, by a first server, a request from a currently logged-in user of the first server for data stored on a second server; loading, by the first server, a root certificate from a secure store service of the first server, the root certificate being for accessing the second server via a single sign-on operation, wherein the root certificate is a certificate created at the first server and transmitted to the second server for storage, trusted by both the first and second servers; dynamically generating, by the first server, a user certificate for identifying the currently logged-in user on the first server; signing, by the first server, the user certificate with the root certificate; binding, by the first server, the user certificate with the request for data; sending, by the first server, the request for data to the second server for authentication by the second server using the user certificate, the authentication comprising accessing a mapping table for mapping a subject name in the user certificate to a user of the second server; enabling, by the first server, the single sign-on with the second server, upon an entry being found in the mapping table for the currently logged-in user, the found entry enabling data operations to occur between the currently logged-in user and the second server; and receiving, by the first server, an open web protocol response containing the requested data from the second server. receiving, by a first server, a request from a currently logged-in user of the first server for data stored on a second server; loading, by the first server, a root certificate from a secure store service of the first server, the root certificate being for accessing the second server via a single sign-on operation, wherein the root certificate is a certificate created at the first server and transmitted to the second server for storage, trusted by both the first and second servers; dynamically generating, by the first server, a user certificate for identifying the currently logged-in user on the first server; signing, by the first server, the user certificate with the root certificate; binding, by the first server, the user certificate with the request for data; sending, by the first server, the request for data to the second server for authentication by the second server using the user certificate, the authentication comprising accessing a mapping table for mapping a subject name in the user certificate to a user of the second server; enabling, by the first server, the single sign-on with the second server, upon an entry being found in the mapping table for the currently logged-in user, the found entry enabling data operations to occur between the currently logged-in user and the second server; and receiving, by the first server, an open web protocol response containing the requested data from the second server.
A method of object classification for images of an intra-oral cavity, comprising: illuminating at least a portion of an intra-oral cavity with a sequence of structured light patterns each having a spatial phase that is different from the spatial phase of the other structured light patterns; for each of the structured light patterns, acquiring, at an imager having an array of photodetectors, an image of the illuminated portion of the intra-oral cavity; determining, at a processor, coordinates for a plurality of points on the surface of the objects in the image; determining, from the image, a background intensity value for each of the points, wherein the background intensity value for a point is determined by first mathematically fitting a sinusoidal intensity variation to the three intensity values for the location of the point in the 2D image of the illuminated object and then determining the background intensity value as the minimum value of the fitted sinusoidal function; determining, at the processor, a translucence value for each of the points using the determined background intensity value for each of the points; and determining, at the processor, an object class for each of the points based on a comparison of the translucence value of the point to one or more threshold values or ranges associated with different object classes, the object class selected from the group consisting of soft oral tissue, gingiva, teeth, posts, inserts, and cavity fillings. illuminating at least a portion of an intra-oral cavity with a sequence of structured light patterns each having a spatial phase that is different from the spatial phase of the other structured light patterns; for each of the structured light patterns, acquiring, at an imager having an array of photodetectors, an image of the illuminated portion of the intra-oral cavity; determining, at a processor, coordinates for a plurality of points on the surface of the objects in the image; determining, from the image, a background intensity value for each of the points, wherein the background intensity value for a point is determined by first mathematically fitting a sinusoidal intensity variation to the three intensity values for the location of the point in the 2D image of the illuminated object and then determining the background intensity value as the minimum value of the fitted sinusoidal function; determining, at the processor, a translucence value for each of the points using the determined background intensity value for each of the points; and determining, at the processor, an object class for each of the points based on a comparison of the translucence value of the point to one or more threshold values or ranges associated with different object classes, the object class selected from the group consisting of soft oral tissue, gingiva, teeth, posts, inserts, and cavity fillings.