mhurhangee/patent-ind-claim-en huggingface dataset:
A production method of a retinal pigment epithelial cell comprising the following steps: a first step for culturing a pluripotent stem cell in a medium comprising an FGF receptor inhibitor and/or an MEK inhibitor for a period of not more than 30 days, wherein the medium does not contain a Nodal signal transduction pathway inhibitor and does not contain a Wnt signal transduction pathway inhibitor; and a second step for culturing the cell obtained in the first step in the presence of a Nodal signal transduction pathway inhibitor and/or a Wnt signal transduction pathway inhibitor, and in the absence of an FGF receptor inhibitor and in the absence of an MEK inhibitor, to form a retinal pigment epithelial cell; wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2. a first step for culturing a pluripotent stem cell in a medium comprising an FGF receptor inhibitor and/or an MEK inhibitor for a period of not more than 30 days, wherein the medium does not contain a Nodal signal transduction pathway inhibitor and does not contain a Wnt signal transduction pathway inhibitor; and a second step for culturing the cell obtained in the first step in the presence of a Nodal signal transduction pathway inhibitor and/or a Wnt signal transduction pathway inhibitor, and in the absence of an FGF receptor inhibitor and in the absence of an MEK inhibitor, to form a retinal pigment epithelial cell; wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2. wherein the Nodal signal transduction pathway inhibitor is SB431542, and wherein the Wnt signal transduction pathway inhibitor is CKI-7, D4476, IWR-1-endo or IWP-2.
A method for the removal of an ester from a vapor mixture containing the ester , by bringing the vapor mixture into contact with an aqueous solution containing the acid corresponding to the ester , wherein a portion of the ester is dissolved in or otherwise transferred to the aqueous solution , and the aqueous solution is after the contact led in a circulation , characterized in that the aqueous solution is processed in the circulation in a process comprising: - a heating step - a reaction step having a residence time and a temperature - a cooling step wherein the heating step precedes the reaction step , the reaction step precedes the cooling step , and the residence time and the temperature in the reaction step are sufficient to substantially reduce the content of the ester in the aqueous solution through a dissolution and hydrolysis of the ester . - a heating step - a reaction step having a residence time and a temperature - a cooling step
A compound having a formula ( I ) Wherein: X is any one of a carboxylic acid, carboxylic ester or a bioisoster thereof, primary alcohol, ether, or an amine group, wherein the bioisoster consists of a sulfate, sulfonic acid, phosphate, phosphonate, or a nitrogen-containing etherocyclic ring, and wherein the amine group optionally comprises a primary amine, secondary amine, or a cyclic amine; n is 1, 2, 3, 4, or 5; a C3-C1' dashed line represents an optional exocyclic double bond C=C at position C3-C1'; a C2-C3 dashed line represents an optional endocyclic double bond C=C; Y at C6 is a hydroxyl (OH) in the alpha- or beta-configuration or a hydroxymethyl (CH 2 OH) in the alpha-configuration; Z at C7 is a -H or -OH in an alpha-configuration or a ketone, wherein a dashed line represents an optional carbonyl group (C=O) at Z; or a pharmaceutically acceptable salt, solvate, or hydrate thereof. X is any one of a carboxylic acid, carboxylic ester or a bioisoster thereof, primary alcohol, ether, or an amine group, wherein the bioisoster consists of a sulfate, sulfonic acid, phosphate, phosphonate, or a nitrogen-containing etherocyclic ring, and wherein the amine group optionally comprises a primary amine, secondary amine, or a cyclic amine; n is 1, 2, 3, 4, or 5; a C3-C1' dashed line represents an optional exocyclic double bond C=C at position C3-C1'; a C2-C3 dashed line represents an optional endocyclic double bond C=C; Y at C6 is a hydroxyl (OH) in the alpha- or beta-configuration or a hydroxymethyl (CH 2 OH) in the alpha-configuration; Z at C7 is a -H or -OH in an alpha-configuration or a ketone, wherein a dashed line represents an optional carbonyl group (C=O) at Z; or
A method of pre-fetching address translations in a memory management unit, MMU, of a device, comprising: receiving , by the MMU, a pre-fetch command from an upstream component of the device, the pre-fetch command including an address of an instruction and one or more parameters specifying a plurality of target addresses to be pre-fetched by the MMU; pre-fetching , by the MMU, the plurality of target addresses and a translation of the address of the instruction from a translation table in a memory of the device; and storing , by the MMU, the plurality of target addresses and the translation of the address of the instruction in a translation cache associated with the MMU. receiving , by the MMU, a pre-fetch command from an upstream component of the device, the pre-fetch command including an address of an instruction and one or more parameters specifying a plurality of target addresses to be pre-fetched by the MMU; pre-fetching , by the MMU, the plurality of target addresses and a translation of the address of the instruction from a translation table in a memory of the device; and storing , by the MMU, the plurality of target addresses and the translation of the address of the instruction in a translation cache associated with the MMU.
A method for the automated control of the size of a nozzle discharge gap of a nozzle arrangement, wherein the nozzle arrangement has a first and a second nozzle lip as well as a nozzle discharge gap arranged between the nozzle lips for the controlled setting of a thickness profile of a conveyable melt, wherein a plurality of adjusting elements, in particular a plurality of adjusting bolts is arranged on the first nozzle lip, which are each coupled with an associated thermoelement, wherein the thermoelements can be controlled by the control in such a manner that due to expansion or contraction of the thermoelements the gap adjustment can be realized by means of a mechanical force acting from the respective thermoelement via an associated adjusting element on the first nozzle lip characterized in that when the nozzle arrangement is put into operation for conveying the melt, the adjusting elements for a subsequent control of the gap size are set once without play as an initial setting, wherein the degree of freedom from play of the adjusting elements is set depending on the type of melt and/or depending on the size of a basic gap of the nozzle arrangement. wherein the nozzle arrangement has a first and a second nozzle lip as well as a nozzle discharge gap arranged between the nozzle lips for the controlled setting of a thickness profile of a conveyable melt, wherein a plurality of adjusting elements, in particular a plurality of adjusting bolts is arranged on the first nozzle lip, which are each coupled with an associated thermoelement, wherein the thermoelements can be controlled by the control in such a manner that due to expansion or contraction of the thermoelements the gap adjustment can be realized by means of a mechanical force acting from the respective thermoelement via an associated adjusting element on the first nozzle lip characterized in that when the nozzle arrangement is put into operation for conveying the melt, the adjusting elements for a subsequent control of the gap size are set once without play as an initial setting, wherein the degree of freedom from play of the adjusting elements is set depending on the type of melt and/or depending on the size of a basic gap of the nozzle arrangement.
A refrigeration cycle device comprising: a refrigerant circuit in which refrigerant circulates, the refrigerant circuit being made up of devices including a compressor , a condenser , a pressure reducing unit , and an evaporator ; a measurement sensor configured to measure an index value related to a temperature of a housing of a device subject to cryo-protection out of the devices making up the refrigerant circuit; and a controller configured to control the refrigerant circuit, wherein the refrigerant is a refrigerant with a large temperature glide having a difference of 1 degree C or greater in temperature between saturated liquid and saturated vapor at a constant pressure, wherein the measurement sensor is a temperature sensor configured to measure a temperature of the housing of the device subject to cryo-protection, as the index value, wherein the controller is configured to control the refrigerant circuit to maintain a temperature of the refrigerant in a form of the saturated vapor at a temperature higher than a cryo-protective temperature that is specified depending on a minimum operating temperature based on a material used for the housing of the device subject to cryo-protection, wherein the controller controls the refrigerant circuit to increase a pressure level of lower pressure in the refrigerant circuit when the index value reaches the cryo-protective temperature or below, and wherein the device subject to cryo-protection is the compressor . a refrigerant circuit in which refrigerant circulates, the refrigerant circuit being made up of devices including a compressor , a condenser , a pressure reducing unit , and an evaporator ; a measurement sensor configured to measure an index value related to a temperature of a housing of a device subject to cryo-protection out of the devices making up the refrigerant circuit; and a controller configured to control the refrigerant circuit, wherein the refrigerant is a refrigerant with a large temperature glide having a difference of 1 degree C or greater in temperature between saturated liquid and saturated vapor at a constant pressure, wherein the measurement sensor is a temperature sensor configured to measure a temperature of the housing of the device subject to cryo-protection, as the index value, wherein the controller is configured to control the refrigerant circuit to maintain a temperature of the refrigerant in a form of the saturated vapor at a temperature higher than a cryo-protective temperature that is specified depending on a minimum operating temperature based on a material used for the housing of the device subject to cryo-protection, wherein the controller controls the refrigerant circuit to increase a pressure level of lower pressure in the refrigerant circuit when the index value reaches the cryo-protective temperature or below, and wherein the device subject to cryo-protection is the compressor .
A device comprising: a body configured to receive an elongated medical device ; and a conductive element configured to contact a touchscreen of a computing device , wherein an amount of contact between the conductive element and the touchscreen varies based on a compressive force applied to the elongated medical device when the elongated medical device is received within the body ; wherein the body is configured to support and align the elongated medical device and the conductive element such that the compressive force applied to the elongated medical device is transferred to the conductive element. a body configured to receive an elongated medical device ; and a conductive element configured to contact a touchscreen of a computing device , wherein an amount of contact between the conductive element and the touchscreen varies based on a compressive force applied to the elongated medical device when the elongated medical device is received within the body ;
A fastener chain, comprising a pair of right and left fastener tapes and a pair of fastener stringers having a plurality of metal fastener elements crimped and attached on opposing tape side edge portions of the fastener tapes along a tape length direction, wherein each fastener element comprises an engaging head portion , a body portion arranged on one end side of the engaging head portion and a pair of leg portions extending to be bifurcated from one end of the body portion , wherein the engaging head portion comprises a head body having a first main surface and a second main surface opposite to the first main surface, an engaging protrusion portion provided to protrude from the first main surface of the head body and an engaging recess portion provided to be recessed in the second main surface of the head body , wherein the first and second main surfaces of the head body are flat surfaces perpendicular to the tape length direction; characterized in that the pair of leg portions extend to be curved in a direction oblique to the first and second main surfaces of the head body .
A food product comprising: • from 30 to 85 wt% starch, • from 15 to 50 wt% of fat, wherein the total amount of salt, monosodium glutamate and sugar taken together is less than 15 wt% of the weight of the food product, wherein the product is in the form of a paste and wherein the product has a density of between 0.6 and 1 kg/I at 20 °C and wherein the product comprises from 10 to 40 % of gas, compared to an identical product without added gas, wherein the percentage of gas is calculated according to the formula, wherein an aerated (gas-containing) product and non-aerated product are compared in a respective cup of a certain fixed volume: percentage of gas = 100 − m 3 − m 1 / m 2 − m 1 / 100 , wherein: m 1 = weight of the cup (g), m 2 = weight of the cup including the non-aerated product (g), m 3 = weight of the cup including the aerated product (g). • from 30 to 85 wt% starch, • from 15 to 50 wt% of fat, m 1 = weight of the cup (g), m 2 = weight of the cup including the non-aerated product (g), m 3 = weight of the cup including the aerated product (g).
Screw cap for containers with a threaded neck portion, comprising: - a base portion comprising a top surface and a bottom surface , - an annular portion raised from the base portion , the annular portion having an inner surface and an outer surface ; - three threads arranged on the inner surface of the annular portion , wherein the base portion comprises three engagement portions , such that the screw cap is configured to engage a tool with at least one complementary engagement portion in a process of alignment of the screw cap and a complementary threaded neck portion, wherein the engagement portions are located on the top surface of the base portion , the top surface facing a pouring opening of the container onto which the screw cap is to be applied defined by the neck portion, wherein the engagement portions each comprise at least one protrusion , having a vertical portion, and wherein each of the three threads is aligned to one engagement portion , respectively, such that a starting point of each thread is vertically aligned with one end of the protrusion of the engagement portion so that there is no rotational distance away from it, and wherein the three engagement portions are arranged on a circle centered around a symmetry axis (C-C) of the screw cap , where the symmetry axis (C-C) is perpendicular to a plane in which the bottom surface is located. - a base portion comprising a top surface and a bottom surface , - an annular portion raised from the base portion , the annular portion having an inner surface and an outer surface ; - three threads arranged on the inner surface of the annular portion , the base portion comprises three engagement portions , such that the screw cap is configured to engage a tool with at least one complementary engagement portion in a process of alignment of the screw cap and a complementary threaded neck portion, wherein the engagement portions are located on the top surface of the base portion , the top surface facing a pouring opening of the container onto which the screw cap is to be applied defined by the neck portion, wherein the engagement portions each comprise at least one protrusion , having a vertical portion, and wherein each of the three threads is aligned to one engagement portion , respectively, such that a starting point of each thread is vertically aligned with one end of the protrusion of the engagement portion so that there is no rotational distance away from it, and wherein the three engagement portions are arranged on a circle centered around a symmetry axis (C-C) of the screw cap , where the symmetry axis (C-C) is perpendicular to a plane in which the bottom surface is located.
Seat with a device for influencing a backward movement of the seat , wherein the seat comprises a backrest part (1.1) and a seating part (1.2), comprising - at least one deformation element arranged in a hinged area of the seating part (1.2) between a side part of the seating part (1.2) and one end of a transverse strut , - wherein the deformation element is designed such that it is deformable due to a force acting on the seating part (1.2) and/or the backrest part (1.1) at a predefined torque curve, - wherein the deformation element is formed in one piece from one part with a plurality of partial regions (4.3 to 4.5) and the one-piece deformation element comprises two partial regions (4.3, 4.4) which are spaced apart radially from one another and are connected together by means of further partial regions (4.5), an internal partial region (4.4) being fastened to the transverse strut and an external partial region (4.3) to the side part , and - the partial regions (4.3 to 4.5) have a different expansion behaviour and/or different strengths. - at least one deformation element arranged in a hinged area of the seating part (1.2) between a side part of the seating part (1.2) and one end of a transverse strut , - wherein the deformation element is designed such that it is deformable due to a force acting on the seating part (1.2) and/or the backrest part (1.1) at a predefined torque curve, - wherein the deformation element is formed in one piece from one part with a plurality of partial regions (4.3 to 4.5) and the one-piece deformation element comprises two partial regions (4.3, 4.4) which are spaced apart radially from one another and are connected together by means of further partial regions (4.5), an internal partial region (4.4) being fastened to the transverse strut and an external partial region (4.3) to the side part , and - the partial regions (4.3 to 4.5) have a different expansion behaviour and/or different strengths.
A sensor housing for preventing particle buildup on a housing window, the sensor housing comprising: a first surface in which the housing window is included; and a spoiler edge , wherein the spoiler edge is positioned adjacent to the housing window and extended away from the first surface perpendicular to an axis of rotation of the sensor housing and wherein the spoiler edge is configured to generate an airflow substantially parallel to the housing window and away from the spoiler edge during rotation of the sensor housing a first surface in which the housing window is included; and a spoiler edge , wherein the spoiler edge is positioned adjacent to the housing window and extended away from the first surface perpendicular to an axis of rotation of the sensor housing and wherein the spoiler edge is configured to generate an airflow substantially parallel to the housing window and away from the spoiler edge during rotation of the sensor housing
Dishwasher, in particular a domestic dishwasher, comprising a washing container , which provides a washing chamber and is used to receive washware to be cleaned, and comprising a heat pump device , which has an evaporator arranged inside a reservoir filled with a heat-storage medium , characterised by a fan unit for charging the reservoir with ambient air , and by a condensation device for condensing moisture contained in the ambient air, the condensation device comprising a condensation surface provided by an outer surface of the reservoir and comprising a collection container for condensate accumulating on the condensation surface .
A sensor of an electric motor or a magnetic bearing, for measuring a position, a displacement, a speed, a rotational speed, an acceleration, a temperature, a pressure or a vibration, and for operating in an environment subjected to corrosive gases or liquids under pressure, comprising a housing inside which are installed: - a sensing portion , - at least one wire electrically connected to the sensing portion , and - a seal for sealing the connection between the sensing portion and the at least one wire , with at least one through-hole receiving a portion of the at least one wire , the sensor further comprising a compressor installed at least partly inside the housing , movable with respect to the housing and adapted to contact the seal in order to compress it, wherein upon displacement of the compressor , the seal is deformed until the creation of a compression force exerted by the seal onto said portion of the at least one wire , so as to prevent any passage of corrosive gases or liquids between the seal and the at least one wire . - a sensing portion , - at least one wire electrically connected to the sensing portion , and - a seal for sealing the connection between the sensing portion and the at least one wire , with at least one through-hole receiving a portion of the at least one wire ,
A control system for UAV incorporating autopilot, the control system comprising: a main processor ; and a co-processor , wherein the main processor is configured to compute one or more motor control signals based on the desired body rate values ; the control system being characterised in that : the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor ; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor . a main processor ; and a co-processor , wherein the main processor is configured to compute one or more motor control signals based on the desired body rate values ; the control system being characterised in that : the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor ; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor . the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor ; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor .