mhurhangee/ep-ind-claims huggingface dataset:
Method of operating a horizontal refrigerated display cabinet to store products outside opening hours, said cabinet comprising at least one heat exchanger, connected to a refrigerating circuit and destined to absorb heat, and ventilation means suitable to generate a flow of air which circulates between the heat exchanger and the display compartment of said cabinet, passing through a delivery aperture and a return aperture, said method comprising a step a) of placing a protective screen inside the cabinet to separate the display compartment from the external environment, wherein said protective screen is positioned between the delivery aperture and return aperture, so that the delivery aperture opens directly onto the display compartment and the return aperture opens directly onto the external environment, characterised in that it comprises a step b) of regulating the ventilation means so that the speed of the flow of air is barely sufficient to flow inside the space under the protective screen, said air flow returning to the heat exchanger passing through the protective screen, which is made of a material permeable to air or provided with holes for the passage of air, to then reach the return aperture, said protective screen creating a pressure drop in the circulation of the air flow between the delivery aperture and the return aperture such that the air flow tends to fill the entire display compartment under the protective screen before passing through the screen and reaching the return aperture.
A dispensing closure for a flowable product, the closure having: - a dispensing orifice; - a pre-dispensing chamber with an inlet defined by an internally extending spout; - a valve member, assembled into the chamber and comprising a disc-like platform, is movable within the chamber between a first and second position, in which in the first position the mouth of the spout is blocked by the platform of the valve member and the valve member is movable away from the chamber inlet to the second position in response to product flow such that in the second position the inlet is unblocked and is in fluid communication with the orifice through the chamber; and - a base and a lid, - characterised in that when the lid is in the closed position the valve member is caused to be in the first position. - a dispensing orifice; - a pre-dispensing chamber with an inlet defined by an internally extending spout; - a valve member, assembled into the chamber and comprising a disc-like platform, is movable within the chamber between a first and second position, in which in the first position the mouth of the spout is blocked by the platform of the valve member and the valve member is movable away from the chamber inlet to the second position in response to product flow such that in the second position the inlet is unblocked and is in fluid communication with the orifice through the chamber; and - a base and a lid, - characterised in that when the lid is in the closed position the valve member is caused to be in the first position.
A non-naturally occurring microbial organism having a methanol metabolic pathway and an acetyl-CoA pathway, wherein said methanol metabolic pathway comprises a methanol dehydrogenase or a methanol methyltransferase, wherein said methanol dehydrogenase catalyzes conversion of methanol to formaldehyde and wherein said methanol methyltransferase catalyzes conversion of methanol into methyl-THF, wherein said acetyl-CoA pathway comprises: a xylulose-5-phosphate phosphoketolase and a phosphotransacetylase, wherein said xylulose-5-phosphate phosphoketolase catalyzes conversion of xylulose-5-phosphate and phosphate to acetyl-phosphate and glyceraldehyde-3-phosphate, and wherein said phosphotransacetylase catalyzes conversion of acetyl-phosphate to acetyl-CoA; or a xylulose-5-phosphate phosphoketolase, an acetate kinase, and an acetyl-CoA transferase, an acetyl-CoA synthetase, or an acetyl-CoA ligase, wherein said xylulose-5-phosphate phosphoketolase catalyzes conversion of xylulose-5-phosphate and phosphate to acetyl-phosphate and glyceraldehyde-3-phosphate, wherein said acetate kinase catalyzes conversion of acetylphosphate to acetate and wherein said acetyl-CoA transferase, acetyl-CoA synthetase, or acetyl-CoA ligase catalyze conversion of acetate to acetyl-CoA; wherein an enzyme of the methanol metabolic pathway and at least one enzyme of the acetyl-CoA pathway is encoded by an exogenous nucleic acid and is expressed in a sufficient amount to increase the yield of acetyl-CoA per mole of methanol if compared to the yield of acetyl-CoA per mole of methanol in the absence of said enzymes. a xylulose-5-phosphate phosphoketolase and a phosphotransacetylase, wherein said xylulose-5-phosphate phosphoketolase catalyzes conversion of xylulose-5-phosphate and phosphate to acetyl-phosphate and glyceraldehyde-3-phosphate, and wherein said phosphotransacetylase catalyzes conversion of acetyl-phosphate to acetyl-CoA; or a xylulose-5-phosphate phosphoketolase, an acetate kinase, and an acetyl-CoA transferase, an acetyl-CoA synthetase, or an acetyl-CoA ligase, wherein said xylulose-5-phosphate phosphoketolase catalyzes conversion of xylulose-5-phosphate and phosphate to acetyl-phosphate and glyceraldehyde-3-phosphate, wherein said acetate kinase catalyzes conversion of acetylphosphate to acetate and wherein said acetyl-CoA transferase, acetyl-CoA synthetase, or acetyl-CoA ligase catalyze conversion of acetate to acetyl-CoA;
A downlink signal processing method performed by a filter device in a data over cable television system, wherein the filter device comprises a frequency mixer, an attenuator, an analog-to-digital converter, ADC, a digital-to-analog converter, DAC, a frequency combiner, a digital programmable filter, an amplifier, and a controller, and the method comprises: • Splitting, by the frequency mixer, a downlink signal into a first downlink signal and a second downlink signal, wherein the second downlink signal is a signal defined by a maximum frequency of a preset standard, and the downlink signal is an analog signal (step 201); • Attenuating, by the attenuator, the first downlink signal, thereby arriving at an attenuated first downlink signal (step 202); • Performing, by the ADC, an analog-to-digital conversion of the second downlink signal, thereby arriving at a third downlink signal (step 203); • Filtering, by the digital programmable filter, the third downlink signal to obtain a fourth downlink signal based on preset filtering rules according to a frequency requirement of the preset standard, wherein the filtering rules are preset by the controller controlling the digital programmable filter, such that the filtering can be performed according to the frequency requirement of the preset standard (step 204); • Performing, by the DAC, a digital-to-analog conversion on the fourth downlink signal to obtain a fifth downlink signal (step 205); and • Combining, by the frequency combiner, the attenuated first downlink signal and the fifth downlink signal to obtain a downlink output signal (step 206); • Amplifying, by the amplifier, the downlink output signal and sending the amplified downlink output signal to a distributor (step 207). • Splitting, by the frequency mixer, a downlink signal into a first downlink signal and a second downlink signal, wherein the second downlink signal is a signal defined by a maximum frequency of a preset standard, and the downlink signal is an analog signal (step 201); • Attenuating, by the attenuator, the first downlink signal, thereby arriving at an attenuated first downlink signal (step 202); • Performing, by the ADC, an analog-to-digital conversion of the second downlink signal, thereby arriving at a third downlink signal (step 203); • Filtering, by the digital programmable filter, the third downlink signal to obtain a fourth downlink signal based on preset filtering rules according to a frequency requirement of the preset standard, wherein the filtering rules are preset by the controller controlling the digital programmable filter, such that the filtering can be performed according to the frequency requirement of the preset standard (step 204); • Performing, by the DAC, a digital-to-analog conversion on the fourth downlink signal to obtain a fifth downlink signal (step 205); and • Combining, by the frequency combiner, the attenuated first downlink signal and the fifth downlink signal to obtain a downlink output signal (step 206); • Amplifying, by the amplifier, the downlink output signal and sending the amplified downlink output signal to a distributor (step 207).
Suitcase, comprising a hollow body, a lid configured to close the hollow body and at least one foldable auxiliary compartment comprising: - a front lid which is connected to the lid of the suitcase by means of a hinged connection; - a lamellar structure which is attached to at least the front lid and the lid of the suitcase; wherein the auxiliary compartment further comprises a hinged armature which is coupled to the front lid by means of a hinged connection located in an area opposite to the hinged connection; wherein the auxiliary compartment in an unfolded position generates a stable interior space; and wherein the lamellar structure is connected to the hinged armature; wherein the auxiliary compartment in a fully unfolded position generates a stable interior space delimited by the front cover and the lamellar structure. - a front lid which is connected to the lid of the suitcase by means of a hinged connection; - a lamellar structure which is attached to at least the front lid and the lid of the suitcase; wherein the auxiliary compartment further comprises a hinged armature which is coupled to the front lid by means of a hinged connection located in an area opposite to the hinged connection; wherein the auxiliary compartment in an unfolded position generates a stable interior space; and wherein the lamellar structure is connected to the hinged armature; wherein the auxiliary compartment in a fully unfolded position generates a stable interior space delimited by the front cover and the lamellar structure.
A shampoo composition comprising: a) from 5 % to 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed gel network phase comprising: i) at least 0.05 % of one or more fatty alcohols, by weight of said shampoo composition; ii) at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least 20 % of an aqueous carrier, by weight of said shampoo composition; wherein said dispersed gel network phase has a melt transition temperature of from 40°C to 60°C, as measured according to differential scanning calorimetry, wherein said fatty alcohol is selected from fatty alcohols having from 18 to 70 carbon atoms, wherein said secondary surfactant is selected from cationic surfactants. a) from 5 % to 50 % of one or more detersive surfactants, by weight of said shampoo composition; b) a dispersed gel network phase comprising: i) at least 0.05 % of one or more fatty alcohols, by weight of said shampoo composition; ii) at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and i) at least 0.05 % of one or more fatty alcohols, by weight of said shampoo composition; ii) at least 0.01 % of one or more secondary surfactants, by weight of said shampoo composition; and iii) water; and c) at least 20 % of an aqueous carrier, by weight of said shampoo composition;
A glass composition comprising: a) 60 - 75 mol% P 2 O 5; b) 3.7 - 7.4 mol% M 1 2 O, wherein M 1 is selected from K, Li, Na and Rb; c) 9.8 - 19. 4 mol% M 2 O, wherein M 2 is selected from Ba, Mg, Ca and Sr; d) 2.2 - 4.3 mol% Al 2 O 3; e) 0.16 - 0.3 mol% Er 2 O 3; f) 4.8 - 6.4 mol% Yb 2 O 3; g) 0.1 - 2.5 mol% CeO 2; h) 0.1 - 0.5 mol% Nb 2 O 5; i) 0 - 0.5 mol% fining agent; and j) 0 - 2 mol% Y 2 O 3. a) 60 - 75 mol% P 2 O 5; b) 3.7 - 7.4 mol% M 1 2 O, wherein M 1 is selected from K, Li, Na and Rb; c) 9.8 - 19. 4 mol% M 2 O, wherein M 2 is selected from Ba, Mg, Ca and Sr; d) 2.2 - 4.3 mol% Al 2 O 3; e) 0.16 - 0.3 mol% Er 2 O 3; f) 4.8 - 6.4 mol% Yb 2 O 3; g) 0.1 - 2.5 mol% CeO 2; h) 0.1 - 0.5 mol% Nb 2 O 5; i) 0 - 0.5 mol% fining agent; and j) 0 - 2 mol% Y 2 O 3.
A method for producing a customised digital model of a medical device based on a first three-dimensional, 3D, digital model of a base generic device, said first digital model being a triangulated vertex boundary representation, the method comprising the steps of: importing said first digital model of said base generic device; importing a second 3D digital model of a target shape; modifying said first digital model to create said customised digital model based on said target shape, said modifying including: determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape. importing said first digital model of said base generic device; importing a second 3D digital model of a target shape; modifying said first digital model to create said customised digital model based on said target shape, said modifying including: determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape. determining a warping interpolation function based on relative positions of a set of source points associated with the first digital model of the base generic device and relative positions of a set of target points, said relative positions being: (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and (i) determined by projecting said set of source points to said target shape; or (ii) based on a set of target parameters relating to said target shape; and applying the warping interpolation function to all vertices of said triangulated vertex boundary representation of said base generic device to generate said customised digital model of said medical device, wherein said customised digital model of said medical device is adapted to fit said target shape.
A brake assistance system, applicable to an electric vehicle driven by a motor, and comprising: a brake pedal, a booster motor, a simulation motor, a planetary row coupling node, and a brake master cylinder, wherein the brake master cylinder comprises a piston rod, the brake pedal, the booster motor, and the simulation motor are connected by using the planetary row coupling node, and the planetary row coupling node is configured to convert a torque of the brake pedal, a torque output by the booster motor, and a torque output by the simulation motor into an acting force acting on the piston rod in the brake master cylinder. wherein the planetary row coupling node comprises: a planetary gear mechanism, a first transmission mechanism, a second transmission mechanism, and a third transmission mechanism; the simulation motor is connected to a sun gear of the planetary gear mechanism and is configured to drive the sun gear to rotate; and the planet carrier drives, by using the third transmission mechanism, the piston rod to move linearly, characterized in that the brake pedal drives, by using the first transmission mechanism, a ring gear of the planetary gear mechanism to rotate; the booster motor drives, by using the second transmission mechanism, a planet carrier of the planetary gear mechanism to rotate. wherein the planetary row coupling node comprises: a planetary gear mechanism, a first transmission mechanism, a second transmission mechanism, and a third transmission mechanism; the simulation motor is connected to a sun gear of the planetary gear mechanism and is configured to drive the sun gear to rotate; and the planet carrier drives, by using the third transmission mechanism, the piston rod to move linearly, characterized in that the brake pedal drives, by using the first transmission mechanism, a ring gear of the planetary gear mechanism to rotate; the booster motor drives, by using the second transmission mechanism, a planet carrier of the planetary gear mechanism to rotate.
A method for gracefully extending the range or capacity of voice communication over a communication network, comprising: persistently storing on a communication device voice media created using the communication device and intended for transmission over a communication network; and transmitting the voice media as the voice media is created when the useable bit rate on the communication network is above that necessary to support the real-time transmission of the voice media; and transmitting the voice media out of storage at the available useable bit rate on the communication network when the useable bit rate on the communication network is below that necessary to support the real-time transmission of the voice media as the voice media is created. persistently storing on a communication device voice media created using the communication device and intended for transmission over a communication network; and transmitting the voice media as the voice media is created when the useable bit rate on the communication network is above that necessary to support the real-time transmission of the voice media; and transmitting the voice media out of storage at the available useable bit rate on the communication network when the useable bit rate on the communication network is below that necessary to support the real-time transmission of the voice media as the voice media is created.
Wafer boat for the plasma treatment of disc-shaped wafers, in particular semiconductor wafers for semiconductor or photovoltaic applications, comprising: a plurality of plates positioned parallel to one another made of an electrically conductive material, each plate having at least one receptacle for a wafer on each side facing another plate, which define a receiving space of the plates; a plurality of spacer elements, which are positioned between directly adjacent plates in order to position the plates parallel to each other; characterised in that the spacer elements are electrically conductive. a plurality of plates positioned parallel to one another made of an electrically conductive material, each plate having at least one receptacle for a wafer on each side facing another plate, which define a receiving space of the plates; a plurality of spacer elements, which are positioned between directly adjacent plates in order to position the plates parallel to each other; characterised in that the spacer elements are electrically conductive.
Masking device for floor coverings having a fastening rail which can be laid along a covering edge to be masked and having a masking profile which can be connected to the fastening rail by means of fastening screws which are distributed over the profile length and engage between two longitudinal limbs (2, 3) of the fastening rail, the longitudinal limbs (2, 3) forming a U-profile, the masking profile likewise having two longitudinal limbs (5, 6) on its underside forming a U-profile, characterized in that the two U-profiles of the fastening rail and of the masking profile interlock and in that the fastening screws passing through the masking profile between its two longitudinal limbs (5, 6) engage in a drive channel between the two inner longitudinal limbs (2, 5) of the fastening rail and the masking profile in relation to the interlocking U-profiles and press an inner longitudinal leg of one U-profile against an outer longitudinal leg of the other U-profile in a clamping manner.
A biaxially stretched, blow molded synthetic resin bottle, with a round, cylindrical body and with a bottom comprising a sunken bottom portion, which is formed by contouring and concaving a bottom plate upward in a direction of bottle inside, starting from an inner peripheral edge of a ground contact portion disposed along peripheral foot, the sunken bottom portion being capable of drawing upward in a reversible manner when internal pressure goes down, wherein this sunken bottom portion comprises: - an inner peripheral wall portion standing from near the inner peripheral edge of the ground contact portion disposed along the peripheral foot, - a central concave portion disposed at a center of the bottom, - a reversible wall portion in a flat ring shape, which is perpendicular to the central axial direction of the bottle before deformation, is reversibly deformable into an upward drawing state when internal pressure goes down and which connects an upper end of the inner peripheral wall portion to a base of the central concave portion, and - a flat ring portion serving as a circular rib wall portion which connects between the reversible wall portion and the upper end of the inner peripheral wall portion so as to perform a function as a peripheral rib. - an inner peripheral wall portion standing from near the inner peripheral edge of the ground contact portion disposed along the peripheral foot, - a central concave portion disposed at a center of the bottom, - a reversible wall portion in a flat ring shape, which is perpendicular to the central axial direction of the bottle before deformation, is reversibly deformable into an upward drawing state when internal pressure goes down and which connects an upper end of the inner peripheral wall portion to a base of the central concave portion, and - a flat ring portion serving as a circular rib wall portion which connects between the reversible wall portion and the upper end of the inner peripheral wall portion so as to perform a function as a peripheral rib.