mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring one or more radioactive nuclides present in a stack flow inside a duct, comprising: a first detector having a predetermined first sensitivity to gamma radiation; a second detector having a predetermined second sensitivity to gamma radiation and a predetermined sensitivity to beta particles produced by the one or more radioactive nuclides; a flow meter for measuring a flow rate of the stack flow; and an electronic signal processor for receiving signals from said first detector, said second detector, and said flow meter; the electronic signal processor comprises energy window discrimination and being configured to identify one or more nuclide species present in the stack flow, and to calculate a background-corrected value of radiation activity concentration for each of the identified nuclide species, said system being characterized in that said background-corrected value depends upon a ratio between the first and second sensitivities to gamma radiation. a first detector having a predetermined first sensitivity to gamma radiation; a second detector having a predetermined second sensitivity to gamma radiation and a predetermined sensitivity to beta particles produced by the one or more radioactive nuclides; a flow meter for measuring a flow rate of the stack flow; and an electronic signal processor for receiving signals from said first detector, said second detector, and said flow meter; the electronic signal processor comprises energy window discrimination and being configured to identify one or more nuclide species present in the stack flow, and to calculate a background-corrected value of radiation activity concentration for each of the identified nuclide species, said system being characterized in that said background-corrected value depends upon a ratio between the first and second sensitivities to gamma radiation.
A splicing apparatus (200,300,400,500,600,700,800,900,1000,1100) comprising: a lower roll drawer configured to hold a lower web material in alignment with a first predefined location; a first cylinder actuated to cause an upper web material to be engaged by a first clamp, the first cylinder also configured to cause the upper web material to engage a cutting edge to separate the upper web material into a downstream upper web portion and an upper web portion; characterized by a second cylinder actuated to cause the downstream upper web portion to be engaged by a second clamp; a third cylinder configured to cause the downstream upper web portion to be placed in alignment with the first predefined location; and a fourth cylinder configured to cause a first side of the downstream upper web material to be in contact with a first side of the lower web material at the first predefined location. a lower roll drawer configured to hold a lower web material in alignment with a first predefined location; a first cylinder actuated to cause an upper web material to be engaged by a first clamp, the first cylinder also configured to cause the upper web material to engage a cutting edge to separate the upper web material into a downstream upper web portion and an upper web portion; characterized by a second cylinder actuated to cause the downstream upper web portion to be engaged by a second clamp; a third cylinder configured to cause the downstream upper web portion to be placed in alignment with the first predefined location; and a fourth cylinder configured to cause a first side of the downstream upper web material to be in contact with a first side of the lower web material at the first predefined location.
Apparatus, comprising means for advancing along an advancing direction a sheet material that is thermoformable through a forming station (22; 122) comprising forming means (23; 123) arranged for deforming portions of said sheet material so as to make shell means (61, 62; 161) of containers (60; 160), characterised in that it comprises blanking means (26, 34; 126, 134) for blanking further portions of said sheet material and making spatula means (70; 170) to be inserted into said shell means (61, 62; 161).
Method for safe access of at least one mobile control unit to at least one field device, wherein a connection for transmitting data is established at least between the mobile control unit and the field device, wherein access data for access of the mobile control unit is transmitted to the field device, wherein a comparison is made between the access data and stored comparison data and a comparison result is generated, and that access of the mobile control unit to the field device is permitted based on the comparison result, wherein at least one access code is assigned to the field device for access to the field device and the access code is stored as at least a part of the comparison data, wherein an identification code is assigned to the mobile control unit and is stored as at least a part of the comparison data and that the identification code is transmitted as at least a part of the access data, characterized in that the identification code is stored as at least a part of the comparison data in this case, that the comparison result that was generated for the comparison of the access data transmitted by the mobile control unit and the stored access code is positive and that by re-access, only the identification code is transmitted from the mobile control unit to the field device and is directly identified by the field device as trustworthy due to the stored data and access is granted.
A catalyst composition, comprising a monocoordinated phosphine ligand represented by Formula 1 below; a monocoordinated phosphine ligand represented by Formula 2 below; and a transition metal catalyst represented by Formula 3 below: wherein R 1, R 2 and R 3 are each independently a C 1 or C 2 alkyl group or a C 1 or C 2 alkoxy group, wherein Z is a C 5 to C 10 cycloalkyl group, and [Formula 3] M(L 1) x (L 2) y (L 3) z wherein M is one selected from the group consisting of cobalt (Co), rhodium (Rh), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt) and osmium (Os), L 1, L 2 and L 3 are each independently one selected from the group consisting of hydrogen, carbonyl, cyclooctadiene, norbornene, chlorine, triphenylphosphine, and acetylacetonato (AcAc), and x, y and z are each independently 0 to 5, but x, y and z are not simultaneously 0, wherein each of the monocoordinated phosphine ligand represented by Formula 1 and the monocoordinated phosphine ligand represented by Formula 2 is comprised in a content of 0.1 to 5 % by weight with respect to the catalyst composition, wherein a mix ratio by weight of the monocoordinated phosphine ligand represented by Formula 1: the monocoordinated phosphine ligand represented by Formula 2 is 10:1 to 1:5, and wherein each of the monocoordinated phosphine ligand represented by Formula 1 and the monocoordinated phosphine ligand represented by Formula 2 is comprised in an amount of 0.5 to 80 moles based on one mole of a central metal of the transition metal catalyst represented by Formula 3. wherein M is one selected from the group consisting of cobalt (Co), rhodium (Rh), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt) and osmium (Os), L 1, L 2 and L 3 are each independently one selected from the group consisting of hydrogen, carbonyl, cyclooctadiene, norbornene, chlorine, triphenylphosphine, and acetylacetonato (AcAc), and x, y and z are each independently 0 to 5, but x, y and z are not simultaneously 0, wherein each of the monocoordinated phosphine ligand represented by Formula 1 and the monocoordinated phosphine ligand represented by Formula 2 is comprised in a content of 0.1 to 5 % by weight with respect to the catalyst composition, wherein a mix ratio by weight of the monocoordinated phosphine ligand represented by Formula 1: the monocoordinated phosphine ligand represented by Formula 2 is 10:1 to 1:5, and wherein each of the monocoordinated phosphine ligand represented by Formula 1 and the monocoordinated phosphine ligand represented by Formula 2 is comprised in an amount of 0.5 to 80 moles based on one mole of a central metal of the transition metal catalyst represented by Formula 3.
A method for collecting facial information, for unlocking a terminal device, applicable to the terminal device comprising a facial information collection apparatus and a touch display screen, comprising: displaying a background image on the touch display screen, wherein a brightness of the background image is greater than or equal to a first brightness, and light emitted from the touch display screen and the background image is configured to illuminate a face of a user; and collecting (102, 405), by the facial information collection apparatus, the facial information of the user with the face illuminated by the light emitted from the touch display screen and the background image; wherein when a sum of the brightness of the background image and the brightness of the present ambient light is greater than or equal to a second brightness, the method further comprises: enabling the brightness of the touch display screen to be smaller than the brightness of the background image; wherein the second brightness is a minimum value of the sum of the brightness of the background image and the brightness of the present ambient light as an auxiliary light source to illuminate the face of the user when the terminal device collects the facial information in a dark visual environment. displaying a background image on the touch display screen, wherein a brightness of the background image is greater than or equal to a first brightness, and light emitted from the touch display screen and the background image is configured to illuminate a face of a user; and collecting (102, 405), by the facial information collection apparatus, the facial information of the user with the face illuminated by the light emitted from the touch display screen and the background image; wherein when a sum of the brightness of the background image and the brightness of the present ambient light is greater than or equal to a second brightness, the method further comprises: enabling the brightness of the touch display screen to be smaller than the brightness of the background image; wherein the second brightness is a minimum value of the sum of the brightness of the background image and the brightness of the present ambient light as an auxiliary light source to illuminate the face of the user when the terminal device collects the facial information in a dark visual environment. enabling the brightness of the touch display screen to be smaller than the brightness of the background image; wherein the second brightness is a minimum value of the sum of the brightness of the background image and the brightness of the present ambient light as an auxiliary light source to illuminate the face of the user when the terminal device collects the facial information in a dark visual environment.
A process for producing sheet glass comprising: floating and advancing a glass ribbon on a molten metal surface in a molten metal bath; bringing a plurality of rolls into contact with both edge portions of the glass ribbon in a width direction of the glass ribbon to form the glass ribbon in a planar shape; heating both edge portions of the glass ribbon more intensely than a central portion of the glass ribbon in the width direction in an upstream zone of the molten metal bath; and rotating the rolls such that upstream rolls in an advancing direction of the glass ribbon have a lower peripheral speed than downstream rolls in the advancing direction, thereby to produce sheet glass having a central portion in a width direction thereof formed so as to have a greater thickness than both edge portions thereof, wherein the sheet glass produced from the glass ribbon has a principal surface with a maximum height Rz of at most 0.3 μm in accordance with JIS B 0601-2001 in a roughness curve having a reference length of 25 mm. floating and advancing a glass ribbon on a molten metal surface in a molten metal bath; bringing a plurality of rolls into contact with both edge portions of the glass ribbon in a width direction of the glass ribbon to form the glass ribbon in a planar shape; heating both edge portions of the glass ribbon more intensely than a central portion of the glass ribbon in the width direction in an upstream zone of the molten metal bath; and rotating the rolls such that upstream rolls in an advancing direction of the glass ribbon have a lower peripheral speed than downstream rolls in the advancing direction, thereby to produce sheet glass having a central portion in a width direction thereof formed so as to have a greater thickness than both edge portions thereof,
An indoor unit of an air conditioner, comprising: a housing comprising: a panel defining a first fresh air opening; and characterised by a face frame defining a second fresh air opening corresponding to the first fresh air opening; a fresh air assembly in the housing, comprising an air duct communicated with the second fresh air opening; and a sealing component at a periphery of the second fresh air opening, configured to seal a gap between the face frame and the panel, characterised in that the sealing component is configured to seal a gap between the face frame and the fresh air assembly. a housing comprising: a panel defining a first fresh air opening; and characterised by a face frame defining a second fresh air opening corresponding to the first fresh air opening; a panel defining a first fresh air opening; and characterised by a face frame defining a second fresh air opening corresponding to the first fresh air opening; a fresh air assembly in the housing, comprising an air duct communicated with the second fresh air opening; and a sealing component at a periphery of the second fresh air opening, configured to seal a gap between the face frame and the panel, characterised in that the sealing component is configured to seal a gap between the face frame and the fresh air assembly.
A continuous fluid sampling device, comprising: (i) a horizontally arranged sample inlet in flow communication with (ii) a vertically arranged longitudinal sampling chamber with a top opening that is configured for optional sample retrieval and air release in flow communication at its bottom end with (iii) an air vent that inclines laterally from the bottom of the sampling chamber to about, above or below the level of the sample inlet, preferably to about or below the level of the sample inlet, and (iv) an excess sample outlet branching in flow communication from the air vent with the exit of the excess sample outlet positioned at a level above the bottom of the sampling chamber and at or preferably below the level of the sample inlet, wherein the device is configured so that the fluid sample (a) enters the sampling chamber via inlet at a level above the bottom of the sampling chamber, (b) is analyzed or sampled at a level at or below the inlet in the sampling chamber and optionally releases excess gas through the top opening and/or the air vent, and (c) exits the device via the excess sample outlet. (i) a horizontally arranged sample inlet in flow communication with (ii) a vertically arranged longitudinal sampling chamber with a top opening that is configured for optional sample retrieval and air release in flow communication at its bottom end with (iii) an air vent that inclines laterally from the bottom of the sampling chamber to about, above or below the level of the sample inlet, preferably to about or below the level of the sample inlet, and (iv) an excess sample outlet branching in flow communication from the air vent with the exit of the excess sample outlet positioned at a level above the bottom of the sampling chamber and at or preferably below the level of the sample inlet, (a) enters the sampling chamber via inlet at a level above the bottom of the sampling chamber, (b) is analyzed or sampled at a level at or below the inlet in the sampling chamber and optionally releases excess gas through the top opening and/or the air vent, and (c) exits the device via the excess sample outlet.
A display panel comprising: a first region where a plurality of pixel groups are disposed; and a second region where a plurality of square or rhombus pixel groups and a plurality of light transmitting parts are disposed, wherein the plurality of square or rhombus pixel groups disposed in the second region are disposed between the light transmitting parts, an aspect ratio of each of the square or rhombus pixel groups disposed in the second region is different from that of each of the pixel groups disposed in the first region, and each of the square or rhombus pixel groups of the second region includes the same number of sub-pixels as each of the pixel groups of the first region, wherein: the size of each of the sub-pixels disposed in the pixel group disposed in the second region is the same as the size of each of the sub-pixels disposed in the pixel group disposed in the first region, characterised in that each of the light transmitting parts includes a circular or oval light transmitting part, and the circular or oval light transmitting parts disposed are disposed in a zigzag shape in a first direction and a second direction. a first region where a plurality of pixel groups are disposed; and a second region where a plurality of square or rhombus pixel groups and a plurality of light transmitting parts are disposed, wherein the plurality of square or rhombus pixel groups disposed in the second region are disposed between the light transmitting parts, an aspect ratio of each of the square or rhombus pixel groups disposed in the second region is different from that of each of the pixel groups disposed in the first region, and each of the square or rhombus pixel groups of the second region includes the same number of sub-pixels as each of the pixel groups of the first region, wherein: the size of each of the sub-pixels disposed in the pixel group disposed in the second region is the same as the size of each of the sub-pixels disposed in the pixel group disposed in the first region, characterised in that each of the light transmitting parts includes a circular or oval light transmitting part, and the circular or oval light transmitting parts disposed are disposed in a zigzag shape in a first direction and a second direction. the size of each of the sub-pixels disposed in the pixel group disposed in the second region is the same as the size of each of the sub-pixels disposed in the pixel group disposed in the first region, characterised in that each of the light transmitting parts includes a circular or oval light transmitting part, and the circular or oval light transmitting parts disposed are disposed in a zigzag shape in a first direction and a second direction.
Device for arrangement on current busbars, comprising a switching device and an electronics module, wherein the switching device has a front side, which is to be averted from the current busbars, a housing and fuse receptacles, which are arranged in a longitudinal direction of the switching device, for receiving fuses, wherein a contact pair is assigned to the respective fuse receptacle, wherein one contact of the contact pair is connected to an input current conductor and the other contact of the contact pair is connected to an outgoing current conductor, and wherein the electronics module has a housing (5, 6, 7, 8) and a sensor component for voltage and/or current and/or energy measurement, a further-processing component for detecting and further processing an output signal of the sensor component or a pre-processed output signal of the sensor component and a transfer component for forwarding the output signal of the sensor component to the further-processing component or for preprocessing the output signal of the sensor component and forwarding the pre-processed output signal of the sensor component to the further-processing component, wherein the housing (5, 6, 7, 8) of the electronics module has a first housing section, a second housing section and a third housing section, wherein the sensor component is mounted in the first housing section, the transfer component is mounted in the second housing section and the further-processing component is mounted in the third housing section, characterized in that the switching device and the electronics module are detachably connected to each other, wherein the first housing section of the electronics module is arranged on a rear side of the switching device facing away from the front side and the second housing section and the third housing section of the electronics module protrude in the longitudinal direction of the switching device in relation to the switching device.
A software-executed hallmark verification process for verifying a hallmark of a web site, the process comprising activating a hallmark verification process on a user device with access to the web site, whereby the verification activation is external of the content of the web site by validating the hallmark by a hallmark verification source, HVS, which is also external of the web site, whereby the web site does not have access to the activation of the verification request or the HVS; whereby upon activation a URL of a browser in focus is read by software running on the user device; the read URL is sent to the HVS; the HVS stores and maintains a list of valid hallmarks for a specific URL and associated attributes of those hallmarks; the HVS returns data giving details of the hallmarks that are valid for the specific URL identified and the corresponding hallmark attributes; the software searches the in-focus web site HTML code for a hallmark tag; when a tag is identified, the attributes of the corresponding hallmark are read; the contents of the tag identified hallmark are compared with the data returned from the HVS; the software confirms if the hallmark is valid by comparing the HVS provided data with that obtained from the hallmark of the web site in focus, whereby if the data corresponds then the hallmark is validated; and the validation of the hallmark is communicated to the user.
A skin care composition comprising at least one keratinocyte CLOCK or PER1 gene activator selected from the group consisting of: and mixtures thereof; and, at least one DNA repair enzyme selected from the group consisting of: - base excision repair enzymes, - nucleotide excision repair enzymes, - DNA polymerases, - DNA helicases, - Mismatch repair enzymes; - and mixtures thereof. - base excision repair enzymes, - nucleotide excision repair enzymes, - DNA polymerases, - DNA helicases, - Mismatch repair enzymes; - and mixtures thereof.