mhurhangee/ep-ind-claims huggingface dataset:
A prosthesis comprising: a first component comprising an acetabular cup formed from a fibre reinforced polymer material and having a bearing surface; and a second component comprising a metal femoral head resurfacing component including a spherical cap portion and a central post extending from an inner surface of the spherical cap portion, wherein the inner surface of the spherical cap portion and the post have a rough surface, the second component being adapted to articulate with the bearing surface of the first component, wherein a surface treatment is applied to at least a portion of the bearing surface of the second component to form a wear-resistant surface, the surface treatment comprising a wear-resistant superlattice coating comprising a ceramic material. a first component comprising an acetabular cup formed from a fibre reinforced polymer material and having a bearing surface; and a second component comprising a metal femoral head resurfacing component including a spherical cap portion and a central post extending from an inner surface of the spherical cap portion, wherein the inner surface of the spherical cap portion and the post have a rough surface, the second component being adapted to articulate with the bearing surface of the first component, wherein a surface treatment is applied to at least a portion of the bearing surface of the second component to form a wear-resistant surface, the surface treatment comprising a wear-resistant superlattice coating comprising a ceramic material.
A device for measuring fluid potential in a plant tissue, said device comprising: a) a compartment having a ridged body containing therein an osmoticum, said compartment comprising at least one opening; b) at least one selective barrier positioned at least over said at least one opening of said compartment for selectively allowing water transfer between the plant fluid and the osmoticum in the compartment; and c) at least one pressure sensor configured for detecting changes in pressure of fluid in said compartment, said changes are related to the water potential of the plant tissue, wherein: - said compartment is configured such that there is a direct contact between the plant fluid and the osmoticum therein via said at least one selective barrier, - said osmoticum is a water absorbent hydrogel, and - said device is configured for being inserted into a part of the plant. a) a compartment having a ridged body containing therein an osmoticum, said compartment comprising at least one opening; b) at least one selective barrier positioned at least over said at least one opening of said compartment for selectively allowing water transfer between the plant fluid and the osmoticum in the compartment; and c) at least one pressure sensor configured for detecting changes in pressure of fluid in said compartment, said changes are related to the water potential of the plant tissue, wherein: - said compartment is configured such that there is a direct contact between the plant fluid and the osmoticum therein via said at least one selective barrier, - said osmoticum is a water absorbent hydrogel, and - said device is configured for being inserted into a part of the plant. - said compartment is configured such that there is a direct contact between the plant fluid and the osmoticum therein via said at least one selective barrier, - said osmoticum is a water absorbent hydrogel, and - said device is configured for being inserted into a part of the plant.
A ball distance measuring system comprising: a support adapted to be received over a reference ball; a reference on the support having a diameter differing from a diameter of the reference ball by a predetermined amount visually distinguishable from a circumference of the reference ball with contrasting coloration presenting an even visual separation confirming concentric coincidence when centered with respect to the reference ball; and a measurement support rotatably attached to the reference; and a ball distance measurement device attached onto the measurement support, wherein the reference comprises: a first reference land on the support, said first reference land substantially coplanar with an equator of the reference ball, said first reference land having an inner diameter greater than a diameter of the reference ball and adapted for optical centering of the support on the reference ball; and wherein the ball distance measuring system further comprises a second reference at an upper extent of the support and having an outer diameter less than the diameter of the reference ball and adapted for optical centering of the support on the reference ball. a support adapted to be received over a reference ball; a reference on the support having a diameter differing from a diameter of the reference ball by a predetermined amount visually distinguishable from a circumference of the reference ball with contrasting coloration presenting an even visual separation confirming concentric coincidence when centered with respect to the reference ball; and a measurement support rotatably attached to the reference; and a ball distance measurement device attached onto the measurement support,
A feed box of a block making machine, wherein the feed box includes an oscillating grate, a connecting rod and an actuator performing a rotary motion, wherein the oscillating grate includes an oscillating grate carriage with an oscillating grate linkage, and the oscillating grate carriage is connected via the connecting rod to the actuator performing the rotary motion, wherein the connecting rod includes a connecting bar, a joint rocker and a drive rocker connected to the actuator, wherein the connecting bar is fastened via a first joint connection to the oscillating grate carriage and the connecting bar is fastened via a second joint connection to the joint rocker and the joint rocker is fastened via a third joint connection to a static bearing and the drive rocker is fastened via a fourth joint connection to the joint rocker, characterised in that the oscillating grate carriage is guided horizontally in sliding guides so that a conversion of the rotary motion of the actuator into a horizontal motion of the oscillating grate carriage occurs.
Cosmetic composition A comprising: a) at least 10% by weight, relative to the weight of the composition, of henna and/or indigo-producing plant powder; and b) at least one oil selected from jojoba oil, babassu oil, sunflower oil, olive oil, coconut oil, Brazil nut oil, marula oil, corn oil, argan oil, soybean oil, marrow oil, grapeseed oil, linseed oil, sesame oil, hazelnut oil, apricot oil, macadamia oil, arara oil, coriander oil, almond oil, avocado oil, shea butter oil, rapeseed oil, borage oil, evening primrose oil, pomegranate oil, mango oil, palm oil, cottonseed oil and copra oil; c) at least one, optionally reduced, saccharide; it being understood that: - the b)/c) weight ratio is greater than 1; and - when the composition contains indigo-producing plant powder, the saccharide is other than glucose. a) at least 10% by weight, relative to the weight of the composition, of henna and/or indigo-producing plant powder; and b) at least one oil selected from jojoba oil, babassu oil, sunflower oil, olive oil, coconut oil, Brazil nut oil, marula oil, corn oil, argan oil, soybean oil, marrow oil, grapeseed oil, linseed oil, sesame oil, hazelnut oil, apricot oil, macadamia oil, arara oil, coriander oil, almond oil, avocado oil, shea butter oil, rapeseed oil, borage oil, evening primrose oil, pomegranate oil, mango oil, palm oil, cottonseed oil and copra oil; c) at least one, optionally reduced, saccharide; - the b)/c) weight ratio is greater than 1; and - when the composition contains indigo-producing plant powder, the saccharide is other than glucose.
An electrochromic display element comprising a pair of counter electrodes having therebetween an electrochromic compound represented by Formula, wherein R 1 represents a substituted or unsubstituted 2-hydroxyphenyl or 4-hydroxyphenyl group; R 2 and R 3 each represent a hydrogen atom or a substituent. X represents >N-R 4, an oxygen atom or a sulfur atom; and R 4 represents a hydrogen atom or a substituent.
A curable adhesive composition having a first part and a second part, the curable adhesive composition comprising: a) an epoxy resin, wherein the epoxy resin is in the first part of the curable adhesive composition; b) a curing agent having at least two groups of formula -NR 1 H where R 1 is selected from hydrogen, alkyl, aryl, or alkylaryl, wherein the curing agent is in the second part of the curable adhesive composition; c) a reactive liquid modifier that is in the first part of the curable adhesive composition, the reactive liquid modifier being of Formula R 2 CH 2 O-R 3 -O CH 2 R 2 wherein R 2 is hydrogen or an alkyl; and R 3 is of formula -[(CH 2) n O] m -(CH 2) n -, wherein R 3 has greater than 20 carbon atoms; n is an integer of 2 to 4; and m is an integer greater than or equal to 5; and d) a toughening agent, wherein the toughening agent is in the first part, in the second part, or in both the first part and the second part of the curable adhesive composition; and e) an oil displacing agent that is in the first part, in the second part, or in both the first part and the second part of the curable adhesive composition, wherein the oil displacing agent is soluble in the curable adhesive composition, has a surface tension in a range of 15 to 32 dynes/cm, and is not selected from a glycidyl ether. a) an epoxy resin, wherein the epoxy resin is in the first part of the curable adhesive composition; b) a curing agent having at least two groups of formula -NR 1 H where R 1 is selected from hydrogen, alkyl, aryl, or alkylaryl, wherein the curing agent is in the second part of the curable adhesive composition; c) a reactive liquid modifier that is in the first part of the curable adhesive composition, the reactive liquid modifier being of Formula R 2 CH 2 O-R 3 -O CH 2 R 2 wherein R 2 is hydrogen or an alkyl; and R 3 is of formula -[(CH 2) n O] m -(CH 2) n -, wherein R 3 has greater than 20 carbon atoms; n is an integer of 2 to 4; and m is an integer greater than or equal to 5; and R 2 is hydrogen or an alkyl; and R 3 is of formula -[(CH 2) n O] m -(CH 2) n -, wherein R 3 has greater than 20 carbon atoms; n is an integer of 2 to 4; and m is an integer greater than or equal to 5; and d) a toughening agent, wherein the toughening agent is in the first part, in the second part, or in both the first part and the second part of the curable adhesive composition; and e) an oil displacing agent that is in the first part, in the second part, or in both the first part and the second part of the curable adhesive composition, wherein the oil displacing agent is soluble in the curable adhesive composition, has a surface tension in a range of 15 to 32 dynes/cm, and is not selected from a glycidyl ether.
A radio frequency receiver (40; 50) configured to receive a plurality of radio frequency bands, the radio frequency receiver comprising a plurality of parallel receiving paths (31.1, 31.2, 31.n), wherein each receiving path (31.1; 31.2; 31.n) is configured to receive a radio frequency signal in one of said plurality of radio frequency bands and to amplify the received radio frequency signal in a low noise amplifier, the receiver being configured to combine amplified radio frequency signals from the plurality of parallel receiving paths (31.1, 31.2, 31.n) to one combined radio frequency signal in a common summation node and to down-convert said combined radio frequency signal to a lower frequency signal in a mixer circuit, wherein each one of said low noise amplifiers comprises • an automatic gain control circuit configured to compensate for variations in signal strength of the radio frequency signal received by the receiving path (31.1; 31.2; 31.n) comprising the low noise amplifier independently of signal strengths of radio frequency signals received by other receiving paths of the radio frequency receiver characterized in that the radio frequency receiver further comprises a current driver circuit having an input connected to said common summation node and an output connected to an input of said mixer circuit; and in that each one of said low noise amplifiers comprises • a low noise transconductance circuit configured to provide a current signal to drive said common summation node. • an automatic gain control circuit configured to compensate for variations in signal strength of the radio frequency signal received by the receiving path (31.1; 31.2; 31.n) comprising the low noise amplifier independently of signal strengths of radio frequency signals received by other receiving paths of the radio frequency receiver • a low noise transconductance circuit configured to provide a current signal to drive said common summation node.
Method for determining the charge state of a secondary intercalation cell having an anode, a cathode, a separator and an electrolyte phase which saturates the anode, the cathode and the separator, wherein the charge state is back-calculated by means of an electrochemical simulation model on the basis of measured variables measured on the intercalation cell, in which simulation model physical-chemical properties in the anode and the cathode are considered in a simplified form as respectively homogeneously distributed in the anode and in the cathode, and in which simulation model Butler-Volmer redaction kinetics are calculated respectively for the anode and for the cathode, wherein the Butler-Volmer reaction kinetics are extended on the anode side by a potential component (Φ 2) in the electrolyte phase of the anode, characterized in that an overpotential η s,a of the Butler-Volmer reaction kinetics extended by the potential component (Φ 2) in the electrolyte phase of the anode is calculated according to η s,a = Φ s,a - U a (c s,a) - Φ 2 (k,I,L) - Φ SEI, with the voltage drop Φ s,a in the solid phase at a charge or discharge current I of the cell, the open-circuit voltage U a (c s,a) of the anode in dependence on the concentration c s,a of atoms and/or molecules and/or ions intercalated in the anode during the intercalation, the calculated potential component Φ 2 (k,I,L) in the electrolyte phase of the anode according to Φ 2 = w·k -1 ·L·I(t), in the electrolyte phase of the anode in dependence on the mean conductivity k of the electrolyte phase, the charge or discharge current I(t) of the cell in dependence on the time t, a weighting w, and also the thickness L of the anode-separator-cathode sandwich and the potential drop Φ SEI due to the film resistance at the surface of the anode.
An ostomy wafer (100, 200, 300, 400, 500, 600, 700, 800) comprising: an external layer (110, 210, 310, 410) having an opening to permit the passage of effluent therethrough and a first adhesive to adhere to external skin around a stoma of an ostomate; a convex layer (120, 220, 320, 420) coupled to the external layer that includes a stoma channel (118, 218, 318, 418, 614, 714, 814) sized to at least partially receive the stoma, and wherein the convex layer includes at least one groove (510, 610) radially spaced from the stoma channel that extends at least partially through the convex layer to facilitate deformation of the convex layer complementary to a shape of the stoma, wherein the at least one groove includes a plurality of grooves (510, 610) spaced circumferentially from one another about the convex layer, wherein at least one of the plurality of grooves extends through the convex layer to a depth that is less than an entire height of the convex layer, and characterised in that the convex layer further includes a second adhesive to further adhere to the ostomate, and wherein at least one of the plurality of grooves extends through the convex layer to a depth that is equal to the entire height of the convex layer. an external layer (110, 210, 310, 410) having an opening to permit the passage of effluent therethrough and a first adhesive to adhere to external skin around a stoma of an ostomate; a convex layer (120, 220, 320, 420) coupled to the external layer that includes a stoma channel (118, 218, 318, 418, 614, 714, 814) sized to at least partially receive the stoma, and wherein the convex layer includes at least one groove (510, 610) radially spaced from the stoma channel that extends at least partially through the convex layer to facilitate deformation of the convex layer complementary to a shape of the stoma, wherein the at least one groove includes a plurality of grooves (510, 610) spaced circumferentially from one another about the convex layer, wherein at least one of the plurality of grooves extends through the convex layer to a depth that is less than an entire height of the convex layer, and characterised in that the convex layer further includes a second adhesive to further adhere to the ostomate, and wherein at least one of the plurality of grooves extends through the convex layer to a depth that is equal to the entire height of the convex layer.
A charging method, applied to a charging device and comprising: sending a quick-charging request to a device to be charged; receiving a quick-charging permission instruction in response to the quick-charging request from the device to be charged; sending a notification request for obtaining a voltage value of a cell of the device to be charged; receiving the voltage value of the cell in response to the notification request from the device to be charged; performing current regulation based on the voltage value of the cell and outputting a power signal after the current regulation to charge the cell. sending a quick-charging request to a device to be charged; receiving a quick-charging permission instruction in response to the quick-charging request from the device to be charged; sending a notification request for obtaining a voltage value of a cell of the device to be charged; receiving the voltage value of the cell in response to the notification request from the device to be charged; performing current regulation based on the voltage value of the cell and outputting a power signal after the current regulation to charge the cell.
A sheet for shielding soft X-rays, the sheet comprising: a first outer sheet (2, 24), an interlayer sheet (3, 22, 23), and a second outer sheet (4, 30), that are all made of materials opaque to soft X-rays; wherein in the first outer sheet (2, 24) a port (5, 25) for supplying ionized air is formed, in the interlayer sheet (3, 22, 23) a passage (7, 28a, 28b) for the ionized air that communicates with the port (5, 25) for supplying the ionized air, is formed, in the second outer sheet (4, 30) a port (8, 31) for discharging the ionized air that communicates with the passage (7, 28a, 28b) for the ionized air, is formed, and wherein the first outer sheet (2, 24), the interlayer sheet (3, 22, 23), and the second outer sheet (4, 30) are stacked and adhered to form one or more portions (9, 33) for transmitting the ionized air that passes through the port (5, 25) for supplying the ionized air, the passage (7, 28a, 28b) for the ionized air, and the port (8, 31) for discharging the ionized air, characterized in that the passage (7, 28a, 28b) for the ionized air that runs from the port (5, 25) for supplying the ionized air to the port (8, 31) for discharging the ionized air has at least one bend (11, 27) a first outer sheet (2, 24), an interlayer sheet (3, 22, 23), and a second outer sheet (4, 30), that are all made of materials opaque to soft X-rays; wherein in the first outer sheet (2, 24) a port (5, 25) for supplying ionized air is formed, in the interlayer sheet (3, 22, 23) a passage (7, 28a, 28b) for the ionized air that communicates with the port (5, 25) for supplying the ionized air, is formed, in the second outer sheet (4, 30) a port (8, 31) for discharging the ionized air that communicates with the passage (7, 28a, 28b) for the ionized air, is formed, and wherein the first outer sheet (2, 24), the interlayer sheet (3, 22, 23), and the second outer sheet (4, 30) are stacked and adhered to form one or more portions (9, 33) for transmitting the ionized air that passes through the port (5, 25) for supplying the ionized air, the passage (7, 28a, 28b) for the ionized air, and the port (8, 31) for discharging the ionized air, characterized in that the passage (7, 28a, 28b) for the ionized air that runs from the port (5, 25) for supplying the ionized air to the port (8, 31) for discharging the ionized air has at least one bend (11, 27)
An electro-pneumatic brake, comprising a total air module for providing total air, an equalizing reservoir pressure control module for adjusting the pressure of a train pipe, a brake pressure adjustment module for adjusting a braking force of a brake cylinder according to a pressure change of the train pipe, and a parking brake pressure control module for braking if a locomotive is stationary or braking a locomotive according to the braking force; the total air module is communicated with a compressor; wherein, the equalizing reservoir pressure control module has an equalizing reservoir, a first air charging pipe communicated with the total air module to charge the equalizing reservoir, a second air charging pipe communicated with the total air module to charge the train pipe, and a relay valve, and the relay valve controls the air charging and discharging of the train pipe by the pressure difference between the equalizing reservoir and the train pipe; a relief electro-pneumatic valve for controlling the air charging of the equalizing reservoir is provided on the first air charging pipe; a total air shutoff valve for controlling the air charging of the train pipe is provided on the second air charging pipe; a brake electro-pneumatic valve for controlling the air discharging of the equalizing reservoir is communicated with the equalizing reservoir. the equalizing reservoir pressure control module has an equalizing reservoir, a first air charging pipe communicated with the total air module to charge the equalizing reservoir, a second air charging pipe communicated with the total air module to charge the train pipe, and a relay valve, and the relay valve controls the air charging and discharging of the train pipe by the pressure difference between the equalizing reservoir and the train pipe; a relief electro-pneumatic valve for controlling the air charging of the equalizing reservoir is provided on the first air charging pipe; a total air shutoff valve for controlling the air charging of the train pipe is provided on the second air charging pipe; a brake electro-pneumatic valve for controlling the air discharging of the equalizing reservoir is communicated with the equalizing reservoir.