mhurhangee/patent-ind-claim-en huggingface dataset:
A sample transfer apparatus for transferring a sample holder into and out of a vacuum chamber , comprising: a holding device including at least one cam configured to cooperate with at least one follower of a sample holder , wherein the at least one cam includes a curved track having an open end portion , a locking portion , a locking track portion , and a releasing track portion , wherein the locking track portion and the releasing track portion respectively connect the open end portion and the locking portion , and wherein the open end portion is a portion of the curved track which is open in a direction parallel to a longitudinal axis of the holding device , wherein the curved track is configured such that in use the at least one follower of the sample holder is guided from the open end portion to the locking portion via the locking track portion for attaching the sample holder to the holding device , wherein the curved track is further configured such that in use the at least one follower of the sample holder is guided from the locking portion to the open end portion via the releasing track portion for releasing the sample holder from the holding device , wherein the sample transfer apparatus is configured to mechanically connect the sample holder to a base inside the vacuum chamber when in use transferring the sample holder into the vacuum chamber , and wherein the sample transfer apparatus is configured to mechanically disconnect the sample holder from the base inside the vacuum chamber when in use transferring the sample holder out of the vacuum chamber . a holding device including at least one cam configured to cooperate with at least one follower of a sample holder , wherein the at least one cam includes a curved track having an open end portion , a locking portion , a locking track portion , and a releasing track portion , wherein the locking track portion and the releasing track portion respectively connect the open end portion and the locking portion , and wherein the open end portion is a portion of the curved track which is open in a direction parallel to a longitudinal axis of the holding device , wherein the curved track is configured such that in use the at least one follower of the sample holder is guided from the open end portion to the locking portion via the locking track portion for attaching the sample holder to the holding device , wherein the curved track is further configured such that in use the at least one follower of the sample holder is guided from the locking portion to the open end portion via the releasing track portion for releasing the sample holder from the holding device , wherein the sample transfer apparatus is configured to mechanically connect the sample holder to a base inside the vacuum chamber when in use transferring the sample holder into the vacuum chamber , and wherein the sample transfer apparatus is configured to mechanically disconnect the sample holder from the base inside the vacuum chamber when in use transferring the sample holder out of the vacuum chamber .
A device for processing an optical signal , the device being configured to: generate a first signal by equalizing the optical signal using a first digital back propagation, DBP, algorithm; generate a first sequence of log-likelihood ratios, LLRs by demapping and deinterleaving the first signal ; generate a first sequence of bits by iteratively decoding the first sequence of LLRs for a first number of iterations; generate a sequence of QAM symbols by mapping and interleaving the first sequence of bits ; the device characterized by being further configured to: generate a second signal by equalizing the first signal based on the sequence of QAM symbols using a second DBP algorithm; generate a second sequence of LLRs by demapping and deinterleaving the second signal ; and generate a second sequence of bits by iteratively decoding the second sequence of LLRs for a second number of iterations. generate a first signal by equalizing the optical signal using a first digital back propagation, DBP, algorithm; generate a first sequence of log-likelihood ratios, LLRs by demapping and deinterleaving the first signal ; generate a first sequence of bits by iteratively decoding the first sequence of LLRs for a first number of iterations; generate a sequence of QAM symbols by mapping and interleaving the first sequence of bits ; generate a second signal by equalizing the first signal based on the sequence of QAM symbols using a second DBP algorithm; generate a second sequence of LLRs by demapping and deinterleaving the second signal ; and generate a second sequence of bits by iteratively decoding the second sequence of LLRs for a second number of iterations.
Heald frame for weaving looms comprising two sidepieces (F) and two crossbars (H) mutually fixed at right angles by coupling joints, each crossbar (H) consisting of a profile comprising an appendix (C), at the longitudinal inner edge of the crossbar (H), to which a heald-bearing plate (S) is fixed, the hooked ends of a plurality of healds (L) being hooked with a play (G) to said heald-bearing plate (S), wherein it further comprises a braking device of the heald (L) free movement by inertia allowed by said play (G), said braking device consisting of a deformable profile fixed to the longitudinal inner edge of each of said crossbars (H) in such a position as to interfere with said free movement of the healds (L), and having a predetermined stiffness in order to allow a deformation of the deformable profile , upon contacting the ends of the moving healds (L), and wherein said predetermined stiffness is low enough to allow said free movement of the healds (L) up to the limit stop contact of the healds (L) against one of said heald-bearing plates (S), and at the same time is high enough to lower the speed of said free movement of the healds (L) .
Electrochemical method for synthesising Janus particles from isotropic electrically conductive submicronic or micronic substrates , characterised in that it includes the following steps: - a three-dimensional reaction medium is formed by introducing said isotropic electrically conductive submicronic or micronic substrates and at least one source of an electrochemically depositable material into a gelled electrolytic solution contained in an electrodeposition cell defined by two separators , said electrodeposition cell being disposed between two electrodes , said gelled electrolytic solution having a sufficient viscosity to prevent the isotropic electrically conductive submicronic or micronic substrates from rotating; - a potential difference E is applied between the two electrodes so as to create a sufficiently strong electric field E for a sufficiently long duration to form, in the entire volume of the three-dimensional reaction medium, Janus particles with a layer of electrochemically depositable material, this layer having a specific shape delimited by a precise contour chosen from the following precise contours: (a) circular line of variable diameter; (b) dot; (c) hemisphere; (d) hemisphere portion. - a three-dimensional reaction medium is formed by introducing said isotropic electrically conductive submicronic or micronic substrates and at least one source of an electrochemically depositable material into a gelled electrolytic solution contained in an electrodeposition cell defined by two separators , said electrodeposition cell being disposed between two electrodes , said gelled electrolytic solution having a sufficient viscosity to prevent the isotropic electrically conductive submicronic or micronic substrates from rotating; - a potential difference E is applied between the two electrodes so as to create a sufficiently strong electric field E for a sufficiently long duration to form, in the entire volume of the three-dimensional reaction medium, Janus particles with a layer of electrochemically depositable material, this layer having a specific shape delimited by a precise contour chosen from the following precise contours: (a) circular line of variable diameter; (b) dot; (c) hemisphere; (d) hemisphere portion.
An ultra-thick steel material, comprising: by weight%, 0.04 to 0.1% of C, 1.2 to 2.0% of Mn, 0.2 to 0.9% of Ni, 0.005 to 0.04% of Nb, 0.005 to 0.03% of Ti, 0.1 to 0.4% of Cu, 100ppm or less of P, 40ppm or less of S, and a balance of Fe and inevitable impurities, wherein the ultra-thick steel material comprises polygonal ferrite of 50 area% or higher, including 100 area%, and bainite of 50 area% or less, including 0 area %, as a microstructure in a region up to a t/10 position in a subsurface area. wherein the ultra-thick steel material comprises bainite of 50 area% or less, including 0 area%, in a region from a t/10 position to a t/5 position in a subsurface area, and a complex structure of acicular ferrite and bainite of 90 area% or higher, including 100 area%, and polygonal ferrite of 10 area% or less, including 0 area%, as a microstructure in a region from a t/5 position to a t/2 position in a subsurface area, where t is a thickness of the steel material, wherein a nil-ductility transition temperature, an NDT temperature, based on a naval research laboratory drop-weight test, a NRL-DWT, prescribed in ASTM 208-06, is -60°C or less in a sample obtained from a surface, wherein an impact transition temperature is -40°C or less in a sample obtained from a t/4 position in a subsurface area, and yield strength is 390MPa or higher, wherein a sheet thickness is 50 to 100mm. by weight%, 0.04 to 0.1% of C, 1.2 to 2.0% of Mn, 0.2 to 0.9% of Ni, 0.005 to 0.04% of Nb, 0.005 to 0.03% of Ti, 0.1 to 0.4% of Cu, 100ppm or less of P, 40ppm or less of S, and a balance of Fe and inevitable impurities, wherein the ultra-thick steel material comprises polygonal ferrite of 50 area% or higher, including 100 area%, and bainite of 50 area% or less, including 0 area %, as a microstructure in a region up to a t/10 position in a subsurface area. wherein the ultra-thick steel material comprises bainite of 50 area% or less, including 0 area%, in a region from a t/10 position to a t/5 position in a subsurface area, and a complex structure of acicular ferrite and bainite of 90 area% or higher, including 100 area%, and polygonal ferrite of 10 area% or less, including 0 area%, as a microstructure in a region from a t/5 position to a t/2 position in a subsurface area, where t is a thickness of the steel material, wherein a nil-ductility transition temperature, an NDT temperature, based on a naval research laboratory drop-weight test, a NRL-DWT, prescribed in ASTM 208-06, is -60°C or less in a sample obtained from a surface, wherein an impact transition temperature is -40°C or less in a sample obtained from a t/4 position in a subsurface area, and yield strength is 390MPa or higher, wherein a sheet thickness is 50 to 100mm.
A mobile merchant communication device configured to be enrolled by a personalization server for performing a payment transaction with a mobile consumer communication device using a payment server , wherein the mobile merchant communication device comprises: a user interface configured to receive an authentication request from a merchant , wherein the authentication request comprises a first electronic secret; a security enclave configured to, in response to the authentication request, obtain a second electronic secret for the mobile merchant communication device ; and a communication interface configured to transmit an enrollment request to the personalization server , wherein the enrollment request comprises the first electronic secret and the second electronic secret; wherein the communication interface is further configured, in response to the enrollment request, to receive personalization data from the personalization server , wherein the personalization data enables the mobile merchant communication device to perform the payment transaction with the mobile consumer communication device . a user interface configured to receive an authentication request from a merchant , wherein the authentication request comprises a first electronic secret; a security enclave configured to, in response to the authentication request, obtain a second electronic secret for the mobile merchant communication device ; and a communication interface configured to transmit an enrollment request to the personalization server , wherein the enrollment request comprises the first electronic secret and the second electronic secret; wherein the communication interface is further configured, in response to the enrollment request, to receive personalization data from the personalization server , wherein the personalization data enables the mobile merchant communication device to perform the payment transaction with the mobile consumer communication device .
Manufacturing system for additively manufacturing a workpiece, comprising: - a building platform , - a lifting device for the building platform , - a squeegee device , - an optical device , and - a control unit, wherein the squeegee device is located in a building chamber of the manufacturing system , wherein the squeegee device comprises at least one coating element for applying a powder material to the building platform , wherein the squeegee device comprises a squeegee revolver with a cylindrical body , the circumferential surface of which has at least one receptacle into which the coating element is inserted, and another receptacle into which a cleaning element for removing powder residues from a bottom of the building chamber , an interface between the bottom of the building chamber and a powder container , a powder overflow container and/or a building container is inserted, wherein the squeegee revolver is rotatable so that it can be switched to the cleaning element by rotation, so that the cleaning element is facing the bottom of the building chamber , the interface between the bottom of the building chamber and the powder container , the powder overflow container and/or the building container in order to remove the powder residues, wherein the optical device comprises an optical element for recording image data of the building platform and/or of the powder layer, wherein the lifting device is designed for raising and/or lowering the building platform , and wherein the control unit is designed to control the lifting device and the squeegee device on the basis of the image data. - a building platform , - a lifting device for the building platform , - a squeegee device , - an optical device , and - a control unit, wherein the squeegee device is located in a building chamber of the manufacturing system , wherein the squeegee device comprises at least one coating element for applying a powder material to the building platform , wherein the squeegee device comprises a squeegee revolver with a cylindrical body , the circumferential surface of which has at least one receptacle into which the coating element is inserted, and another receptacle into which a cleaning element for removing powder residues from a bottom of the building chamber , an interface between the bottom of the building chamber and a powder container , a powder overflow container and/or a building container is inserted, wherein the squeegee revolver is rotatable so that it can be switched to the cleaning element by rotation, so that the cleaning element is facing the bottom of the building chamber , the interface between the bottom of the building chamber and the powder container , the powder overflow container and/or the building container in order to remove the powder residues, wherein the optical device comprises an optical element for recording image data of the building platform and/or of the powder layer, wherein the lifting device is designed for raising and/or lowering the building platform , and wherein the control unit is designed to control the lifting device and the squeegee device on the basis of the image data.
A hose arrangement comprising an outer tube of flexible material and an inner tube of an elastic material for carrying fluid through the hose arrangement, wherein due to the action of the elastic inner tube , the hose arrangement has a shorter length in a contracted state in the absence of fluid pressure in the interior of the inner elastic tube and a longer length in an expanded state when fluid pressure is applied to the interior of the elastic inner tube, and the outer tube has an undulating state when the hose arrangement is in the contracted state and serves to control and contain expansion of the inner tube when the hose arrangement is in the expanded state, wherein the flexible material of the outer tube comprises a woven fabric which is woven from two types of yarn, a first type of yarn being of a first material and a second type of yarn being of a second material, which is different from the first material, wherein the first type of yarn is arranged longitudinally in the tube and the second type of yarn is arranged transversally in the tube, the first type of yarn has a first elasticity and the second type of yarn has a second elasticity which is lower than the first elasticity, and the outer tube is of an ironed woven fabric.
An injectable hyaluronic acid filler material for use in a therapeutic method for increasing girth of a penis , the method comprising: creating a first space along a length of the penis between Buck's Fascia of the penis and Darte's fascia of the penis ; injecting an injectable hyaluronic acid filler material into the first space ; and modeling the filler material in the first space , wherein creating the first space includes hydro-dissection by injecting a fluid with a needle. creating a first space along a length of the penis between Buck's Fascia of the penis and Darte's fascia of the penis ; injecting an injectable hyaluronic acid filler material into the first space ; and modeling the filler material in the first space , wherein creating the first space includes hydro-dissection by injecting a fluid with a needle.
An electromagnetic flow-rate control valve comprising: a fixed core arranged on an inner circumferential side of a coil; and a cover portion positioned at an outer side in an axial direction with respect to the coil, wherein the fixed core has an enlarged portion in contact with the cover portion in the axial direction and enlarging toward an outer circumferential side of the coil, the cover portion has an inner circumferential side opposing face opposed to an outer circumferential side of the fixed core ; characterized in that an inner side of the cover portion in the axial direction is regulated in the axial direction by being in contact with the enlarged portion of the fixed core in the axial direction, and a yoke arranged on the outer circumferential side of the coil; wherein the cover portion has an outer circumferential side opposing face opposed to an inner circumferential portion of the yoke , and wherein the inner circumferential side opposing face of the cover portion is arranged with a predetermined gap from the outer circumferential side of the fixed core , and the outer circumferential side opposing face of the cover portion is arranged with a predetermined gap from the inner circumferential portion of the yoke wherein the yoke , the fixed core and the cover portion are components of a magnetic circuit. a fixed core arranged on an inner circumferential side of a coil; and a cover portion positioned at an outer side in an axial direction with respect to the coil, wherein the fixed core has an enlarged portion in contact with the cover portion in the axial direction and enlarging toward an outer circumferential side of the coil, the cover portion has an inner circumferential side opposing face opposed to an outer circumferential side of the fixed core ; characterized in that an inner side of the cover portion in the axial direction is regulated in the axial direction by being in contact with the enlarged portion of the fixed core in the axial direction, and a yoke arranged on the outer circumferential side of the coil; wherein the cover portion has an outer circumferential side opposing face opposed to an inner circumferential portion of the yoke , and wherein the inner circumferential side opposing face of the cover portion is arranged with a predetermined gap from the outer circumferential side of the fixed core , and the outer circumferential side opposing face of the cover portion is arranged with a predetermined gap from the inner circumferential portion of the yoke wherein the yoke , the fixed core and the cover portion are components of a magnetic circuit.
A refrigerator comprising: a body defining a storage chamber; a door opening and closing the storage chamber, the door being rotatably coupled to the body by a hinge ; a support bracket supporting a load of the door ; a door bracket coupled to a lower side of the door ; a fixing part between the support bracket and the door bracket ; and an adjustment part coupled to the fixing part and supporting the door bracket to adjust a vertical movement of the door , characterized in that the support bracket comprises a hinge coupling part coupled to the hinge , the fixing part is disposed on an outer circumference of the hinge coupling part , the door bracket comprises an insertion hole through which the fixing part passes, and a screw thread is disposed on an outer circumference of the fixing part , and a screw thread is disposed on an inner circumference of the adjustment part such that the fixing part is screw-coupled to the adjustment part . a body defining a storage chamber; a door opening and closing the storage chamber, the door being rotatably coupled to the body by a hinge ; a support bracket supporting a load of the door ; a door bracket coupled to a lower side of the door ; a fixing part between the support bracket and the door bracket ; and an adjustment part coupled to the fixing part and supporting the door bracket to adjust a vertical movement of the door , characterized in that the support bracket comprises a hinge coupling part coupled to the hinge , the fixing part is disposed on an outer circumference of the hinge coupling part , the door bracket comprises an insertion hole through which the fixing part passes, and a screw thread is disposed on an outer circumference of the fixing part , and a screw thread is disposed on an inner circumference of the adjustment part such that the fixing part is screw-coupled to the adjustment part .
A transmissive optical device comprising: a layer of light absorber material in the solid state, wherein the light absorber material is a phase-change material having a refractive index that is settable to at least two values which confer different optical transmission properties to the device; a switching means configured to switch the phase-change material between different set values of the refractive index by heating induced by passing an electric pulse through the phase-change material or by electrical resistive heating of an adjacent layer that is in thermal contact with the phase-change material; a partially-reflective layer , wherein the partially-reflective layer is less than 20nm thick, and the partially-reflective layer comprises metal; and a spacer layer between the layer of light absorber material and the partially-reflective layer . a layer of light absorber material in the solid state, wherein the light absorber material is a phase-change material having a refractive index that is settable to at least two values which confer different optical transmission properties to the device; a switching means configured to switch the phase-change material between different set values of the refractive index by heating induced by passing an electric pulse through the phase-change material or by electrical resistive heating of an adjacent layer that is in thermal contact with the phase-change material; a partially-reflective layer , wherein the partially-reflective layer is less than 20nm thick, and the partially-reflective layer comprises metal; and a spacer layer between the layer of light absorber material and the partially-reflective layer .