mhurhangee/patent-ind-claim-en huggingface dataset:
A method of inducing tissue-specific differentiation, comprising: a) culturing target tissue-specific fibroblast cells on a surface to produce an extracellular matrix; b) removing the fibroblast cells from the extracellular matrix to produce a tissue-specific differentiation matrix; and c) contacting isolated stem cells with the tissue-specific differentiation matrix to induce the stem cells to differentiate into the target cell type; wherein the target tissue-specific fibroblast cells are from skin, adipose tissue, cardiac tissue, kidney tissue, muscle tissue, liver tissue, pancreas tissue, tissue of the endometrium of uterus, umbilical cord tissue-derived fibroblasts, or dental pulp cells. a) culturing target tissue-specific fibroblast cells on a surface to produce an extracellular matrix; b) removing the fibroblast cells from the extracellular matrix to produce a tissue-specific differentiation matrix; and c) contacting isolated stem cells with the tissue-specific differentiation matrix to induce the stem cells to differentiate into the target cell type;
Reciprocating-saw blade for a power tool, in particular a jigsaw blade, having a first saw-tooth row and a second saw-tooth row , wherein the first and second saw-tooth rows are at an angle (α 1 , α 2 ) in relation to a longitudinal axis of the reciprocating-saw blade , wherein the angle (α 1 ) of the first saw-tooth row is directed oppositely in relation to the angle (α 2 ) of the second saw-tooth row , wherein, between the first and second saw-tooth rows , there is arranged a further saw-tooth row which, with respect to the first and second saw-tooth rows , is arranged in an abruptly set-back manner in relation to the longitudinal axis such that a first tooth of the further saw-tooth row , which first tooth adjoins the first saw-tooth row , is set back towards the longitudinal axis from a longitudinal extent of a first profile of saw-tooth tips of the first saw-tooth row and a second tooth of the further saw-tooth row , which second tooth adjoins the second saw-tooth row , is set back towards the longitudinal axis from a longitudinal extent of a second profile of saw-tooth tips of the second saw-tooth row , characterized in that the further saw-tooth row is divided centrally by a dividing plane which extends transversely to the longitudinal axis of the reciprocating-saw blade , wherein further saw teeth of the further saw-tooth row that are arranged on a side of the dividing plane facing towards the shank are directed in the direction of a tip of the reciprocating-saw blade , and further saw teeth arranged on the side of the tip in relation to the dividing plane are directed in the direction of the shank .
A display gray scale curve correction system for molybdenum target mammography, comprising: a key module for providing signal input, an ARM module for receiving triggered instructions from the key module, an upper computer connected with the ARM module in two directions, an FPGA module connected with the outputs of the ARM module and the upper computer, and a display panel connected with the output of the FPGA module, wherein the upper computer firstly captures the currently displayed mammography, then analyzes the image features, calculates the optimized gray scale correction curve, and the ARM module writes the gray scale correction curve into the FPGA module through a serial communication protocol; the FPGA module performs grayscale mapping twice for pixel values of the input image, one mapping according to the received grayscale correction curve and one mapping according to the standard DICOM correction, and enhances the display of the mammography image, wherein the serial communication protocol is preferably SPI or I 2 C protocol; wherein, in the analysis of the image features by the upper computer, two kinds of inefficient information: "low gray-scale pixels of the transition zone between the skin and the background of the mammography image" and "a certain percentage of the maximum brightness pixels" are ignored, and a grayscale stretching operation is performed; and according to different types of mammary gland, the upper computer designs respectively two optimization schemes for the grayscale correction curve: one for enhancing the high grayscale gland tissue and one for enhancing the low grayscale fibrous trabecular tissue in the displayed image.
A drive carriage for a sliding wall element of a sliding wall installation including a carriage housing , a first running wheel , a second running wheel , a drive unit as well as a suspension element , wherein at least one bearing device allows for the running wheels to be rotatably supported about at least one running wheel axis with regard to the carriage housing , and at least one of the running wheels is drivable by the drive unit , and wherein furthermore the suspension element is disposed in the carriage housing as protruding from the carriage housing and/or such that a sliding wall element is attachable to the suspension element , wherein the drive unit includes an electric drive , which is disposed at least partially within the first running wheel and for driving the first running wheel is mechanically coupled to the first running wheel by means of a first coupling element , characterized in that the electric drive is torque-proof fastened to the suspension element , wherein the electric drive torque-proof fastened extends through the suspension element .
A communication system comprising a first service function forwarder, SFF, a second SFF, a service function chain, SFC, proxy of a first service function, SF, entity attached to the first SFF and a service classifier, wherein the first SF entity is a SF that does not support a packet that carries an SFC header, and wherein, the SFC proxy is configured to: receive, as a proxy of the first SF entity, a first packet from the first SFF, split the first packet to obtain a first SFC header and an original packet, and send the original packet to the first SF entity and return the first SFC header to the first SFF, wherein the first packet comprises the first SFC header and the original packet, the first SFC header comprises first path information and first metadata, and the first metadata comprises processing result information of the first packet which is for determining a subsequent forwarding path; the first SFF is configured to: receive the first SFC header from the first SFC proxy, and send the first SFC header to the second SFF; the service classifier is configured to: receive a processed packet without an SFC header, add a second SFC header to the processed packet to obtain a second packet, and send the second packet to a second SFF, wherein the processed packet is obtained by processing the original packet by the first SF entity, and the second SFC header comprises second path information; the second SFF is configured to: receive the first SFC header and the second packet, and change the second SFC header in the second packet into the first SFC header when determining that the first path information in the first SFC header is the same as the second path information in the second SFC header. the SFC proxy is configured to: receive, as a proxy of the first SF entity, a first packet from the first SFF, split the first packet to obtain a first SFC header and an original packet, and send the original packet to the first SF entity and return the first SFC header to the first SFF, wherein the first packet comprises the first SFC header and the original packet, the first SFC header comprises first path information and first metadata, and the first metadata comprises processing result information of the first packet which is for determining a subsequent forwarding path; the first SFF is configured to: receive the first SFC header from the first SFC proxy, and send the first SFC header to the second SFF; the service classifier is configured to: receive a processed packet without an SFC header, add a second SFC header to the processed packet to obtain a second packet, and send the second packet to a second SFF, wherein the processed packet is obtained by processing the original packet by the first SF entity, and the second SFC header comprises second path information; the second SFF is configured to: receive the first SFC header and the second packet, and change the second SFC header in the second packet into the first SFC header when determining that the first path information in the first SFC header is the same as the second path information in the second SFC header.
Method for producing a decorated wall or floor panel, comprising the method steps: a) providing a pourable carrier material , in particular a granulate; b) arranging the carrier material between two belt-like conveying means ; c) forming the carrier material under the action of temperature to form a web-like carrier ; d) compressing the carrier ; e) treating the carrier under the action of temperature and pressure by use of a two-belt press; f) cooling the carrier ; g) optionally applying a decoration subsurface onto at least a partial area of the carrier ; h) applying a decoration reproducing a decoration template onto at least a partial area of the carrier ; i) applying a protective layer onto at least a partial area of the decoration; and j) optionally structuring the protective layer for introducing pores and/or the edge region of the carrier for forming connecting elements, wherein the method is characterized in that the decoration is applied in method step h) by means of a digital printing process, and in that an additional process step k) treating the carrier for electrostatic discharge at least prior to method step h) is provided. a) providing a pourable carrier material , in particular a granulate; b) arranging the carrier material between two belt-like conveying means ; c) forming the carrier material under the action of temperature to form a web-like carrier ; d) compressing the carrier ; e) treating the carrier under the action of temperature and pressure by use of a two-belt press; f) cooling the carrier ; g) optionally applying a decoration subsurface onto at least a partial area of the carrier ; h) applying a decoration reproducing a decoration template onto at least a partial area of the carrier ; i) applying a protective layer onto at least a partial area of the decoration; and j) optionally structuring the protective layer for introducing pores and/or the edge region of the carrier for forming connecting elements, wherein the method is characterized in that the decoration is applied in method step h) by means of a digital printing process, and in that an additional process step k) treating the carrier for electrostatic discharge at least prior to method step h) is provided.
Optical rotary joint comprising a housing , a hollow shaft , a bevel gear , a prism , and two collimators the rotary joint having a center axis , the housing comprising a first housing section and a second housing section separated by a gap in an axial direction from each other, the first housing section and the second housing section being rotatable against each other and around the center axis , the first housing section having in axial direction a first inner side and a first outer side , the second housing section having in axial direction a second inner side and a second outer side , the first inner side being oriented towards the second inner side , a first collimator is arranged at the first outer side and a second collimator is arranged at the second outer side , the hollow shaft being aligned with the center axis , the hollow shaft having a first end extending into the first housing section and a second end extending into the second housing section , the first end of the hollow shaft is support for at least a first bearing , the first bearing further being support of the first housing section and the second end of the hollow shaft is support for at least a second bearing , the second bearing further being support of the second housing section , the hollow shaft having a prism holder between the first end and the second end , the prism holder is located within the first housing section , the bevel gear being located in the gap between the first housing section and the second housing section , the bevel gear comprising a first wheel , a second wheel and at least one third wheel , the first wheel being coaxial to the center axis at the first inner side of the first housing section , the second wheel being coaxial to the center axis and opposing to the first wheel at the second inner side of the second housing section and having the same diameter as the first wheel , the at least one third wheel being between the first wheel and the second wheel and in mesh with the first wheel and the second wheel , the at least one third wheel having an axis oriented radially to the center axis and being fixedly attached to or being one part with the hollow shaft , such that a rotation of the first housing section against the second housing section with a first angular speed results in a rotation of the hollow shaft with half of the first angular speed, the bevel gear being displaced in axial direction from the prism holder , the prism being located in the prism holder of the hollow shaft .
Structure for absorption and/or dissipation of mechanical shocks for body protection comprising: connectors forming an aerated base (B) with a base surface; protuberances , each of the protuberances comprising a central axis (AA) along which it projects from the aerated base, the central axis being normal to the base surface, two adjacent protuberances being connected to each other by a connector, each of the protuberances has an equivalent outside diameter (D e ) and an equivalent inside diameter (D i ), the thickness between the equivalent outer diameter and the equivalent inner diameter is comprised between 0.5 and 10 mm; each of the protuberances has a through orifice extending along the central axis and defining an internal surface of the protuberance; characterised in that the protuberances are on both sides of the aerated base. connectors forming an aerated base (B) with a base surface; protuberances , each of the protuberances comprising a central axis (AA) along which it projects from the aerated base, the central axis being normal to the base surface, two adjacent protuberances being connected to each other by a connector, each of the protuberances has an equivalent outside diameter (D e ) and an equivalent inside diameter (D i ), the thickness between the equivalent outer diameter and the equivalent inner diameter is comprised between 0.5 and 10 mm; each of the protuberances has a through orifice extending along the central axis and defining an internal surface of the protuberance; characterised in that the protuberances are on both sides of the aerated base.
An energy storage device (600; 700), comprising: an electrode comprising lead (608,614; 708); an electrode comprising lead dioxide (604, 612; 704); a separator (606; 706) between the electrode comprising lead and the electrode comprising lead dioxide; an aqueous electrolyte solution containing sulfuric acid; a first carbon-based additive having a surface area from 100 m 2 /g to 2000 m 2 /g as measured according to the BET method, wherein the first carbon-based additive is functionalized with -SO3 or -COOH and wherein the first carbon-based additive comprises both microporous pore widths less than 2 nanometers and mesoporous pore widths between 2 and 50 nanometers; and a second carbon-based additive having a surface area from 3 m 2 /g to 50 m 2 /g as measured according to the BET method. an electrode comprising lead (608,614; 708); an electrode comprising lead dioxide (604, 612; 704); a separator (606; 706) between the electrode comprising lead and the electrode comprising lead dioxide; an aqueous electrolyte solution containing sulfuric acid; a first carbon-based additive having a surface area from 100 m 2 /g to 2000 m 2 /g as measured according to the BET method, wherein the first carbon-based additive is functionalized with -SO3 or -COOH and wherein the first carbon-based additive comprises both microporous pore widths less than 2 nanometers and mesoporous pore widths between 2 and 50 nanometers; and a second carbon-based additive having a surface area from 3 m 2 /g to 50 m 2 /g as measured according to the BET method.
A method for operating a connectivity orchestration entity configured to orchestrate a connectivity of a plurality of devices (10-12) to a cellular network , wherein each of the plurality of devices (10-12) is configured to exchange data with a corresponding application (20-22) via the cellular network, the method comprising, for each of the plurality of devices: - determining Quality of Service, QoS, requirements needed for the data exchange of the device with the corresponding application, - determining a network address with which the device will be addressed in the cellular network , - transmitting a connectivity request to the cellular network to set up a data packet connection through the cellular network to the corresponding application meeting the determined QoS requirements, - requesting a device gateway to set up a first endpoint of a data connection between the device (10-12) and the corresponding application (20-22) used for the data exchange, the device gateway being the gateway via which the device is connected to the cellular network , - requesting a network gateway to set up a second endpoint of the data connection between the device and the corresponding application, the network gateway being the gateway via which the corresponding application is connected to the cellular network, - determining the number of devices connected to the device gate way and QoS requirements for each of the devices connected to the device gateway. - determining Quality of Service, QoS, requirements needed for the data exchange of the device with the corresponding application, - determining a network address with which the device will be addressed in the cellular network , - transmitting a connectivity request to the cellular network to set up a data packet connection through the cellular network to the corresponding application meeting the determined QoS requirements, - requesting a device gateway to set up a first endpoint of a data connection between the device (10-12) and the corresponding application (20-22) used for the data exchange, the device gateway being the gateway via which the device is connected to the cellular network , - requesting a network gateway to set up a second endpoint of the data connection between the device and the corresponding application, the network gateway being the gateway via which the corresponding application is connected to the cellular network, - determining the number of devices connected to the device gate way and QoS requirements for each of the devices connected to the device gateway.
An aerosol-generating article comprising: a rod of aerosol-generating substrate having a length of between 8 mm and 16 mm and a resistance to draw (RTD) of between 4 mmH 2 O and 10 mm H 2 O; a downstream section provided downstream of the rod of aerosol-generating substrate, the downstream section comprising at least one hollow tubular segment ; and an upstream element provided upstream of the rod of aerosol-generating substrate and abutting the upstream end of the rod of aerosol-generating substrate, the upstream element having a length of between 2 mm and 8 mm and being formed of a hollow tubular segment defining a longitudinal cavity providing an unrestricted flow channel. a rod of aerosol-generating substrate having a length of between 8 mm and 16 mm and a resistance to draw (RTD) of between 4 mmH 2 O and 10 mm H 2 O; a downstream section provided downstream of the rod of aerosol-generating substrate, the downstream section comprising at least one hollow tubular segment ; and an upstream element provided upstream of the rod of aerosol-generating substrate and abutting the upstream end of the rod of aerosol-generating substrate, the upstream element having a length of between 2 mm and 8 mm and being formed of a hollow tubular segment defining a longitudinal cavity providing an unrestricted flow channel.
A storage medium comprising program instructions which are executable by a processor for: - successively imaging an imaging region of an assay analysis system as particles are loaded into the imaging region; - generating a frequency spectrum of each image via a discrete Fourier transform upon formation of each image; - integrating a same coordinate portion of each frequency spectrum; and terminating the loading of particles into the imaging region upon (a) computing an integral which crosses a predetermined threshold and/or (b) tracking integrals calculated for the successively generated frequency spectrums; and terminating the loading of particles upon detecting a change in integral magnitude less than a present limit between two frequency spectrums generated in succession. - successively imaging an imaging region of an assay analysis system as particles are loaded into the imaging region; - generating a frequency spectrum of each image via a discrete Fourier transform upon formation of each image; - integrating a same coordinate portion of each frequency spectrum; and terminating the loading of particles into the imaging region upon (a) computing an integral which crosses a predetermined threshold and/or (b) tracking integrals calculated for the successively generated frequency spectrums; and terminating the loading of particles upon detecting a change in integral magnitude less than a present limit between two frequency spectrums generated in succession. (a) computing an integral which crosses a predetermined threshold and/or (b) tracking integrals calculated for the successively generated frequency spectrums; and terminating the loading of particles upon detecting a change in integral magnitude less than a present limit between two frequency spectrums generated in succession.
Surface elastic wave resonator comprising a piezoelectric material intended to propagate the surface elastic waves and at least one transducer inserted between a pair of reflectors, said transducer comprising combs of interdigitated electrodes and having a number Nc of electrodes that are connected to a hot spot and an acoustic aperture W, characterized in that the relative permittivity of the piezoelectric material is greater than 15 F.m -1 , said transducer having a product Nc.W/fa being greater than 100 μm.MHz -1 , where fa is the antiresonance frequency of said resonator.
Assembly comprising a frame provided with an edge , an auxiliary element attached to said edge of said frame , an adhesive seal arranged at the interface between a first face of said frame and a second face of said auxiliary element , and at least one protrusion which is arranged in said adhesive seal and forms at least one obstacle to the cutting of said adhesive seal , said at least one protrusion extending at least in part between said first face of said frame and said second face of said auxiliary element , said assembly comprising aids for cutting said adhesive seal , said cutting aids comprising at least one elongate member (12, 12', 12", 22, 32, 42, 52, 62, 14, 24, 34) partially embedded inside said adhesive seal , characterised in that said at least one elongate member (12, 12', 12", 22, 32, 42, 52, 62, 14, 24, 34) is arranged at least close to and around said at least one protrusion , and in that said at least one elongate member (12, 12', 12", 22, 32, 42, 52, 62, 14, 24, 34) has two free ends and emerging from said adhesive seal .