mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for sensing the position of an actuator assembly, comprising: an actuator housing having an outer radial end, an inner radial end and an axial end; an electromagnetic coil positioned within the actuator housing; an armature positioned radially inward from the electromagnetic coil within the actuator housing; a slide ring positioned axially outward from the electromagnetic coil; a pressure plate including an outer radial end, an inner radial end, and a rim positioned axially outward from the slide ring, wherein the rim is positioned on the outer radial end of the pressure plate; and a sensor assembly attached to the outer radial end of the actuator housing including a follower having a magnet disposed therein and a recess for receiving the rim of the pressure plate, a sensor housing having a slot for receiving the follower, and a sensor for sensing the magnetic field of the magnet, the sensor being fixed within the sensor housing between the sensor housing and the follower. an actuator housing having an outer radial end, an inner radial end and an axial end; an electromagnetic coil positioned within the actuator housing; an armature positioned radially inward from the electromagnetic coil within the actuator housing; a slide ring positioned axially outward from the electromagnetic coil; a pressure plate including an outer radial end, an inner radial end, and a rim positioned axially outward from the slide ring, wherein the rim is positioned on the outer radial end of the pressure plate; and a sensor assembly attached to the outer radial end of the actuator housing including a follower having a magnet disposed therein and a recess for receiving the rim of the pressure plate, a sensor housing having a slot for receiving the follower, and a sensor for sensing the magnetic field of the magnet, the sensor being fixed within the sensor housing between the sensor housing and the follower.
A method for inducing differentiation of multipotent cells to a desired cell type by exposing a population of the multipotent cells to a population of primary cells of the desired cell type in vitro, wherein the ratio of the number of cells in the population of primary cells to the number of cells in the population of multipotent cells is from 1:200 to 2:3.
System comprising a base and a module that can be inserted into this base to be electrically connected with this base, at least one electric relay that can be opened or closed to decouple the module from the base or to couple it to the base respectively, a mechanical blocking device changing over from a blocking state to a release state that an operator can actuate to release the module in order to extract it from the base, characterized in that this system comprises a sensor to detect the presence of the module in the base and a blocking sensor to detect the state of the blocking device, and means for opening the relay as soon as the blocking sensor detects that the blocking device is in the released state or as soon as the presence sensor detects that the module is not present in the base, the blocking device being arranged so that it can leave its released state only when the module has been extracted from the base by a distance more than the detection distance of the presence sensor.
Method for manufacturing an accessory cladding element for use in architecture, said method comprising: - providing at least one elastically deformable support element, comprising a first outer surface, a second outer surface and a plurality of spacer elements placed between said first and second outer surfaces (4, 5); - applying at least one impermeable and removable layer onto at least a portion of the first outer surface; - preparing a substantially fluid, water-based cement mixture; - introducing said substantially fluid cement mixture into the support element to which the impermeable and removable layer was applied to obtain a cement-based composite structure in a deformable state; - removing part of the substantially fluid cement mixture from the support element so as to eliminate the excess cement mixture; - positioning said cement-based composite structure in the deformable state in a forming device; - keeping said cement-based composite structure in association with the forming device up to the solidification thereof; - removing the cement-based composite structure from the forming device after the solidification of said cement-based composite structure; - removing said at least one removable layer from said at least one portion of the first outer surface once the cement-based composite structure has solidified. - providing at least one elastically deformable support element, comprising a first outer surface, a second outer surface and a plurality of spacer elements placed between said first and second outer surfaces (4, 5); - applying at least one impermeable and removable layer onto at least a portion of the first outer surface; - preparing a substantially fluid, water-based cement mixture; - introducing said substantially fluid cement mixture into the support element to which the impermeable and removable layer was applied to obtain a cement-based composite structure in a deformable state; - removing part of the substantially fluid cement mixture from the support element so as to eliminate the excess cement mixture; - positioning said cement-based composite structure in the deformable state in a forming device; - keeping said cement-based composite structure in association with the forming device up to the solidification thereof; - removing the cement-based composite structure from the forming device after the solidification of said cement-based composite structure; - removing said at least one removable layer from said at least one portion of the first outer surface once the cement-based composite structure has solidified.
An ion trap mass spectrometer including: an ion trap including an ion trap end cap having an entrance aperture; an integrated ion focusing and gating lens comprising first and second members for either focusing ion flow along an axis into said entrance aperture or for deflecting ion flow away from said entrance aperture; a voltage supply for said first and second members; said voltage supply being operable to bias said first and second members with the same voltage for focusing ion flow along said axis into said entrance aperture, and with different voltages for deflecting ion flow away from said entrance aperture; characterised in that: the first and second members form a generally cylindrical configuration about said axis; and said voltage supply is operable to bias said first and second members with voltages of opposite polarities for deflecting ion flow away from said entrance aperture. an ion trap including an ion trap end cap having an entrance aperture; an integrated ion focusing and gating lens comprising first and second members for either focusing ion flow along an axis into said entrance aperture or for deflecting ion flow away from said entrance aperture; a voltage supply for said first and second members; said voltage supply being operable to bias said first and second members with the same voltage for focusing ion flow along said axis into said entrance aperture, and with different voltages for deflecting ion flow away from said entrance aperture; characterised in that: the first and second members form a generally cylindrical configuration about said axis; and said voltage supply is operable to bias said first and second members with voltages of opposite polarities for deflecting ion flow away from said entrance aperture.
A method comprising: generating, by an apparatus of a relay node, a relay node access message for initiating an access procedure to establish a connection between a relay node and an access point, the relay node access message being generated in accordance with an access priority scheme, the access priority scheme being defined such that a higher priority is allocated to the relay node access message than a user device access message for initiating an access procedure to establish a connection between a user device and the access point; and providing, by the apparatus of the relay node, for transmission of the relay node access message in accordance with the access priority scheme, wherein providing for transmission of the relay node access message includes providing for transmission of the relay node access message using dedicated resources reserved for transmission of relay node access messages to the exclusion of user device access messaging. generating, by an apparatus of a relay node, a relay node access message for initiating an access procedure to establish a connection between a relay node and an access point, the relay node access message being generated in accordance with an access priority scheme, the access priority scheme being defined such that a higher priority is allocated to the relay node access message than a user device access message for initiating an access procedure to establish a connection between a user device and the access point; and providing, by the apparatus of the relay node, for transmission of the relay node access message in accordance with the access priority scheme, wherein providing for transmission of the relay node access message includes providing for transmission of the relay node access message using dedicated resources reserved for transmission of relay node access messages to the exclusion of user device access messaging.
Use in Organic Rankin Cycle of an azeotrope-like composition comprising from 1 to 85 % by weight of E-1,1,1,4,4,4-hexafluoro-2-butene and 15 to 99 % by weight of E-1-chloro-3,3,3-trifluoropropene.
Method for preparing a sorting plant, serving to optically identify predefined objects (Ol) and comprising an optical capturing device, for sorting different objects (Ol, O2), for the predefined objects (Ol), wherein a laboratory image acquisition system comprising an optical capturing device is configured and positioned away from the plant and spatially separated from the plant, wherein, with the aid of the optical capturing device of the laboratory image acquisition system and the optical capturing device of the plant, a colour transformation between laboratory system colour values in the laboratory image acquisition system and plant colour values of the plant is determined, wherein predefined objects are acquired with the optical capturing device of the laboratory image acquisition system one or more times, and wherein this/these acquisition(s) acquired in the laboratory image acquisition system is/are subjected to the colour transformation and in the transformed acquisition(s) one or more property/properties relating to the colour of the predefined objects (Ol) is/are determined or wherein one or more property/properties relating to the colour of the predefined objects (Ol) is/are determined in this/these acquisition(s) and this/these determined property/properties is/are subjected to the colour transformation.
Use of a fluidic system for screening therapeutic drugs or drugs that might interfere with embryonic vascular development or that have a fetal cytotoxic effect, said fluidic system comprising a channel with a millimeter or micrometer dimension and a differentiated cell population of endothelial cells derived from human pluripotent stem cells wherein a portion of the said endothelial cells express ephrin B2, wherein the cells are cultured under physiologic shear stress.
A method of wireless communication, comprising: transmitting broadcast information in a first broadcast resource from a first set of broadcast resources; determining based on the broadcast information a need for a second broadcast resource from a second set of broadcast resources; characterized by selecting the second broadcast resource based on a priority associated with the first broadcast resource. transmitting broadcast information in a first broadcast resource from a first set of broadcast resources; determining based on the broadcast information a need for a second broadcast resource from a second set of broadcast resources; characterized by selecting the second broadcast resource based on a priority associated with the first broadcast resource.
A linear motor, comprising: a stator; a mover that moves a subject to be moved linearly along the stator; and a multi-member spacer that is interposed between the mover and the subject to be moved, wherein the stator includes a plurality of permanent magnets, the mover includes a plurality of coils arranged to be opposed to the permanent magnets, and the multi-member spacer includes a first spacer and a second spacer that are made of materials different in thermal conductivity, the first spacer and the second spacer being arranged in this order from the mover, and the first spacer is shaped to have a recessed shape when seen in a linear movement direction of the mover, such that the multi-member spacer is entirely formed in a U-Shape. a stator; a mover that moves a subject to be moved linearly along the stator; and a multi-member spacer that is interposed between the mover and the subject to be moved, wherein the stator includes a plurality of permanent magnets, the mover includes a plurality of coils arranged to be opposed to the permanent magnets, and the multi-member spacer includes a first spacer and a second spacer that are made of materials different in thermal conductivity, the first spacer and the second spacer being arranged in this order from the mover, and the first spacer is shaped to have a recessed shape when seen in a linear movement direction of the mover, such that the multi-member spacer is entirely formed in a U-Shape.
A print device comprising: a head having a nozzle face, the nozzle face having a nozzle for injecting liquid; and a plurality of mount portions arranged in an up-down direction, each of the plurality of the mount portions being configured to mount each of a plurality of containers, each of the plurality of the containers being configured to contain the liquid; the plurality of the mount portions including: a first mount portion located in a first region, the first region being a region in which a distance from the nozzle face in the up-down direction being out of a predetermined range; and a second mount portion (821, 822) located in a second region, the second region being a region in which a distance from the nozzle face in the up-down direction being in the predetermined range, characterized in that the print device also comprises: a reservoir passage configured to connect the first mount portion to the head, and having a reservoir located in the second region, the reservoir having a sub-tank configured to reserve the liquid; and a non-reservoir passage (72A, 72B) configured to connect the second mount portion to the head, and having no sub-tank. a plurality of mount portions arranged in an up-down direction, each of the plurality of the mount portions being configured to mount each of a plurality of containers, each of the plurality of the containers being configured to contain the liquid; the plurality of the mount portions including: a first mount portion located in a first region, the first region being a region in which a distance from the nozzle face in the up-down direction being out of a predetermined range; and a second mount portion (821, 822) located in a second region, the second region being a region in which a distance from the nozzle face in the up-down direction being in the predetermined range, a first mount portion located in a first region, the first region being a region in which a distance from the nozzle face in the up-down direction being out of a predetermined range; and a second mount portion (821, 822) located in a second region, the second region being a region in which a distance from the nozzle face in the up-down direction being in the predetermined range, a reservoir passage configured to connect the first mount portion to the head, and having a reservoir located in the second region, the reservoir having a sub-tank configured to reserve the liquid; and a non-reservoir passage (72A, 72B) configured to connect the second mount portion to the head, and having no sub-tank.
A fluororesin film comprising a fluororesin and the following composite particles dispersed in the fluororesin: Composite particles: composite particles each comprising a particle containing titanium oxide, a first covering layer containing cerium oxide and a second covering layer containing silicon oxide in this order from the inside, wherein the amount of cerium oxide is from 5 to 30 parts by mass based on 100 parts by mass of titanium oxide, the amount of silicon oxide is from 5 to 60 parts by mass based on 100 parts by mass of titanium oxide, and the average particle size of the composite particles is from 0.15 to 3 μm. Composite particles: composite particles each comprising a particle containing titanium oxide, a first covering layer containing cerium oxide and a second covering layer containing silicon oxide in this order from the inside, wherein the amount of cerium oxide is from 5 to 30 parts by mass based on 100 parts by mass of titanium oxide, the amount of silicon oxide is from 5 to 60 parts by mass based on 100 parts by mass of titanium oxide, and the average particle size of the composite particles is from 0.15 to 3 μm.
A laundry detergent composition containing 5 to 30 wt% detersive surfactant selected from non-ionic and anionic surfactant and 0.05 to 4 wt% of polyalkoxylated polyethylene imine polymer where the polyalkoxyl chains are directly linked to the nitrogens in the PEI and each chain has a terminal group with molecular weight less than 100 and wherein the polymer is a PEI which has a molar ratio of polyalkoxyl chains, including the terminal group, to PEI of less than or equal to 3 resulting in 3 or fewer, preferably 2 or fewer, most preferably 1 nitrogens bound to polyalkoxyl chains and wherein the PEI has a Mw of at least 500, preferably 1000 to 2000, more preferably less than 1500 and even about 1300.
Package for the sterile packaging of objects for medical, pharmaceutical or cosmetic applications, comprising at least one bag made of a first and a second web that are connected to one another with a sealed seam, characterized in that the first web consists of a selectively permeable non-woven fabric; the second web consists of a laminated film comprising at least three layers, wherein the first layer is a polymer film arranged on the outside of the bag, the second layer is a laminating adhesive and the third layer (6, 7) is a polymer film arranged on the inside of the bag, wherein the polymer of the first layer has a melting temperature which is at least 20°C above the sealing initiation temperature of the third layer (6, 7), at least one of the layers of the second web includes one or more pigments, the sealed seam is imaged in a 8-bit greyscale image, which has been taken in transmitted light and contrast-normalized, in a grey-scale value range of 50 - 200, and the sealed seam has a transmittance τ vis of 10% - 40% measured in remission with a 2° observer according to DIN 5033-1:2009-5. the first web consists of a selectively permeable non-woven fabric; the second web consists of a laminated film comprising at least three layers, wherein the first layer is a polymer film arranged on the outside of the bag, the second layer is a laminating adhesive and the third layer (6, 7) is a polymer film arranged on the inside of the bag, wherein the polymer of the first layer has a melting temperature which is at least 20°C above the sealing initiation temperature of the third layer (6, 7), at least one of the layers of the second web includes one or more pigments, the sealed seam is imaged in a 8-bit greyscale image, which has been taken in transmitted light and contrast-normalized, in a grey-scale value range of 50 - 200, and the sealed seam has a transmittance τ vis of 10% - 40% measured in remission with a 2° observer according to DIN 5033-1:2009-5.
A communication apparatus comprising: a frame generating block configured, if, after data is transmitted from an upper layer to another communication apparatus, a receive response signal of said data is required, to generate a predetermined frame that includes transmission grant information for said another communication apparatus to transmit said receive response signal and said data; and a transmitting block configured to transmit said generated frame to said another communication apparatus; characterised in that said transmission grant information of said predetermined frame includes a transmission grant index that indicates use of, also next time, transmission grant information used immediately before for transmitting said receive response signal. a frame generating block configured, if, after data is transmitted from an upper layer to another communication apparatus, a receive response signal of said data is required, to generate a predetermined frame that includes transmission grant information for said another communication apparatus to transmit said receive response signal and said data; and a transmitting block configured to transmit said generated frame to said another communication apparatus; characterised in that said transmission grant information of said predetermined frame includes a transmission grant index that indicates use of, also next time, transmission grant information used immediately before for transmitting said receive response signal.
A method for the variothermal temperature control of an injection mould using a temperature control device having at least the steps: A) In a learning phase: - determining a temperature control characteristic of the system which is to be temperature-controlled comprising at least the injection mould and the temperature control device, in order to obtain individual control values for the system, with which control elements of the temperature control device can be actuated in order to obtain a nominal temperature profile B) In a production phase: - temperature control of the injection mould with the control values determined during the learning phase; - determining deviations of an actual temperature profile of the injection mould in relation to the nominal temperature profile during the production cycle and calculating corrected control values for the control elements from these deviations; - carrying out a subsequent production process with the corrected control values. A) In a learning phase: - determining a temperature control characteristic of the system which is to be temperature-controlled comprising at least the injection mould and the temperature control device, in order to obtain individual control values for the system, with which control elements of the temperature control device can be actuated in order to obtain a nominal temperature profile - determining a temperature control characteristic of the system which is to be temperature-controlled comprising at least the injection mould and the temperature control device, in order to obtain individual control values for the system, with which control elements of the temperature control device can be actuated in order to obtain a nominal temperature profile B) In a production phase: - temperature control of the injection mould with the control values determined during the learning phase; - determining deviations of an actual temperature profile of the injection mould in relation to the nominal temperature profile during the production cycle and calculating corrected control values for the control elements from these deviations; - carrying out a subsequent production process with the corrected control values. - temperature control of the injection mould with the control values determined during the learning phase; - determining deviations of an actual temperature profile of the injection mould in relation to the nominal temperature profile during the production cycle and calculating corrected control values for the control elements from these deviations; - carrying out a subsequent production process with the corrected control values.